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HS Code |
971448 |
| CASNumber | 107-19-7 |
| IUPACName | Prop-2-yn-1-al |
| MolecularFormula | C3H4O |
| MolarMass | 56.06 g/mol |
| Appearance | Colorless to pale yellow liquid |
| BoilingPoint | 71 °C |
| MeltingPoint | -81 °C |
| Density | 0.872 g/cm3 |
| FlashPoint | 3 °C |
| RefractiveIndex | 1.410 |
| SolubilityInWater | Miscible |
| Odor | Pungent, sharp |
As an accredited Propyn-3-al factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Propyn-3-al is packaged in a 500 mL amber glass bottle with a secure, tamper-evident cap and hazard labeling. |
| Shipping | **Propyn-3-al** should be shipped in tightly sealed containers under inert gas, away from heat, sparks, or open flames. It must be handled as a flammable liquid and stored in a cool, well-ventilated area. Shipping must comply with relevant local, national, and international hazardous materials regulations. |
| Storage | Propyn-3-al should be stored in a cool, dry, and well-ventilated area, away from heat, sparks, and open flames. Keep the container tightly closed and stored in a flammable chemical storage cabinet. Protect from moisture and incompatible substances such as strong oxidizers. Use only approved, clearly labeled containers. Ensure proper grounding and bonding during handling to prevent static discharge. |
Applications of Propyn-3-al in Industrial ManufacturingPropyn-3-al (Propargyl aldehyde) serves as a highly specialized intermediate in multiple downstream industrial sectors. As a direct manufacturer with years of synthesis and technical support experience, we focus on its targeted applications where unique chemical reactivity and compliance profile deliver indispensable value in advanced formulations, high-purity derivative synthesis, and stringent process control environments. Below, explore its key roles in real-world production chains. 1. Pharmaceutical Intermediate for Antiviral SynthesisWithin pharmaceutical manufacturing, propargyl aldehyde functions as a building block for active pharmaceutical ingredients, particularly for key intermediates in the synthesis of antiviral nucleoside analogues. Downstream process chemists use its triple bond functionality to introduce propargyl groups in nucleoside modifications, contributing to increased molecular diversity and activity profiles. Strict material selection protocols ensure full traceability, impurity management, and byproduct minimization during API synthesis campaigns. Industry compliance standards
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2. Agrochemical Intermediate for Herbicide SynthesisSpecialty herbicide producers use propargyl aldehyde as a feedstock in producing propargyl-containing structural motifs. Its reactivity is essential for constructing alkynyl-substituted benzene or heterocycles, forming the active moieties in selective pre- and post-emergence herbicides. Implementation demands routine monitoring and documentation for synthesis control, operator safety, and downstream residue assessment. Industry compliance standards
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3. Fine Chemical & Fragrance Aldehyde SynthesisIn fine chemical manufacturing, propargyl aldehyde offers niche value in the production of specialty aldehydes with alkynyl functionalities, used for fragrance and flavor synthesis as well as performance-modifying additives for formulated scents. Downstream blending processes highlight the importance of precise molar dosing and purity match to minimize impurity impact on olfactory profile and regulatory status of finished compounds. Industry compliance standards
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4. Polymerization Modifier in Specialty Resin ManufacturingResin manufacturers incorporate propargyl aldehyde in specialty polymerization processes that demand enhanced crosslinking density or unique end-group functionalities. Its triple bond structure affords mechanical and thermal property tuning in high-performance thermoset resins, including those used in electronics or aerospace adhesives. Performance validation and quality control hinge on accurate dosage and reaction-time monitoring. Industry compliance standards
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5. Corrosion Inhibitor Intermediate in Oilfield ChemicalsOilfield service formulators use propargyl aldehyde as a key intermediate in the synthesis of propargyl-based corrosion inhibitors for downhole and pipeline applications. Its integration into aminated or thio-modified inhibitor molecules delivers surface activity against acidic and CO2-induced corrosion phenomena, with attention placed on dosage control and compatibility with oilfield brines. Industry compliance standards
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Years of working hands-on with alkyne-based intermediates have grounded us in practical chemistry. At our production facility, our approach to Propyn-3-al stays close to the essentials: disciplined synthesis, reliable purity, and clear focus on what research, pharmaceutical, and agrochemical teams actually want from a supplier. There’s little time or tolerance for distractions when a process technician calls in with a batch issue or a formulation scientist is stuck troubleshooting an unwanted side reaction. We know how fast requirements shift, so the chemical you need must arrive with predictable performance and clear documentation.
Propyn-3-al, also known in the industry as propargylaldehyde, shows up in more processes than many realize. Chemists choose it for its reactivity, combining an aldehyde group with a terminal alkyne. That kind of functionality doesn’t come easy if quality slips during production, so every shift here follows careful temperature profiles, gentle distillation, and closed-system handling. We never lose sight of how sensitive this molecule can be under the wrong conditions, especially as impurities like propargyl alcohol or unwanted oligomers threaten reaction yields. Our familiarity with small-scale specialty chemistry and large-volume contract manufacturing shapes every tank and drum that ships out—one failed synthesis on a customer’s bench impacts our own reputation.
Years ago, we set the standard for propargylaldehyde with a focus on measurable purity and safe handling. Each batch leaves our plant with an aldehyde content above 98%, water levels below 0.5%, and GC traces checked against reference standards. In-line monitoring tracks the color and clarity, and our storage protocols limit exposure to light or air, as this compound oxidizes if neglected. Every customer who’s run a hydrogenation, Grignard addition, or click reaction with out-of-spec material understands what a delay costs. That’s why we train our operators to spot shifts in odor or viscosity as soon as drums are filled.
Bottle sizes start from a few hundred grams for R&D, scaling up to metric ton lots for industrial trial blends. Our infrastructure includes stainless transfer lines and nitrogen-blanketed tanks, and we never stretch ourselves too thin with unrelated side products. This kind of dedicated setup keeps cross-contamination at bay, which matters whether you’re making advanced materials or a bioactive small molecule.
Chemists turn to Propyn-3-al for a suite of transformations not possible with ordinary aldehydes. The triple bond in its side chain brings a unique versatility: it reacts with amines or thiols to make custom ligands, combines with azides in cycloaddition chemistry, and forms carbon–carbon bonds via common coupling methods. Polymer researchers prize it as a monomer, while agrochemical developers rely on it to form intermediates for active crop protection agents. In the lab, a reliable source of this compound removes variables that slow projects down—it behaves predictably, so time isn’t lost guessing about hidden byproducts.
Large-scale users point to its role in making heterocyclic scaffolds and functionalized polymers, where batch-to-batch consistency decides whether a pilot line keeps running. Where regulatory filings require full traceability, our in-house analytical team provides all certificates, lot histories, and process run data upon request. We field regular phone calls from plant managers tweaking process flow or troubleshooting a purification bottleneck, drawing from not just technical sheets but from feedback across our production staff.
Handling Propyn-3-al takes respect for its hazards. It gives off a sharp, acrid odor, and its vapors irritate eyes and lungs long before levels reach regulatory thresholds. We’ve designed our loading bays and filling lines with robust extraction and fail-safe emergency stops, so our own staff works safely before the drums ever leave the site. Some newer handlers overlook its high flammability or the risk of exothermic polymerization under heat—mistakes that have led to costly incidents at competitors’ plants. Our training programs stress how to catch those early warning signs, how to stage spills, and how to prevent cylinder ruptures or sudden pressure build-ups.
Decades in specialty synthesis have shown that preventive measures cost less than recovery efforts. Corrosion-resistant containers, constant temp-controlled storage, and regular batch sampling have become second nature. We also keep close contact with downstream users about safe dosing, neutralization, and disposal, since Propyn-3-al needs thoughtful recycling or decomposition, not just standard chemical waste handling. Working directly with remediation specialists and fire marshals, we build our logistics systems to meet both regional and international standards. In this industry, there are no shortcuts if worker safety or environmental stewardship are on the line.
Comparing this batch to typical propargylaldehyde from bulk producers, the differences stand out: our customers get consistently high purity and a product free of troublesome color bodies or peroxides. Some market options cut corners on purification, blending, or shipping in drums that haven’t been properly sealed. We hear stories from chemists frustrated by sluggish reactions due to small but critical impurities—sometimes only visible on a high-resolution LC-MS run. That trace contamination might seem minor, but it confounds downstream R&D and bulk manufacturing alike.
Our approach maintains a short, controlled supply chain, keeping transit and storage times low. We assign real batch numbers and date codes traceable back to raw material receipts. This creates confidence for everyone in the chain, from QC analysts signing off on released drums to process engineers watching for subtle yield changes. Our customers notice: waste is lower, workflows move faster, and expensive troubleshooting sessions become rare.
Beyond the technical details, direct feedback from customers drives every incremental improvement. Our technical support team talks weekly with applied chemists about formulation changes, purification problems, or storage upgrades. They share first-hand tips on inert atmosphere techniques, universal solvent compatibility, and how small tweaks to concentration or temperature can dramatically improve product throughput. The feedback doesn’t get lost in an email loop—it gets logged, reviewed, and acted on in the next production round. In-house expertise and customer dialogue keep our process agile and our standards high.
The last few years have shown how fragile specialty chemical supply lines can get, especially for reagents like Propyn-3-al. Global logistics, feedstock volatility, and new environmental rules impact every stage of manufacture. Our team responded by doubling capacity at our main site, cross-training operators to manage outages, and working directly with upstream suppliers to lock down essential raw material sources. No amount of paperwork changes the fact that if a plant goes cold, everyone downstream feels the pain.
COVID-era blockages and shifting regulatory scrutiny of hazardous intermediates exposed who could keep the standard up and who could not. Direct, uncompromised manufacturing offers the steadiness that trading houses, brokers, or shadowy “one-stop” suppliers just can’t guarantee. In some regions, price-centric market share wars led to down-spec product—a risky gambit when dealing with a reactive, regulated chemical. By keeping everything in-house, from receipt of starting alkyne to final tank loading, we outpace those who rely on subcontracted distillation or anonymous third-party blending.
Working with Propyn-3-al, we face pressure not just for purity but also for responsible environmental protocol. Persistent aldehydes and alkynes both present challenges for aquatic toxicity and air emissions. Our site invested in a closed-loop solvent recovery setup that pulls more than 95% of organic output back into re-use streams. We work to lower off-gassing and keep low-impact solvent blends at the center of our wash-down cycles. Our R&D team reviews any new purification aid, catalyst, or scavenger not only for reactivity but also for impact on effluent treatment.
We also track regulatory developments globally. New EU and US reporting thresholds for volatile organics shape how we label drums, route waste, and update compliance paperwork. Unseen by most customers, our sustainability reporting staff walks the floor every week collecting usage data, emission logs, and waste manifests, supporting not just compliance but continuous reduction of environmental risks.
Propyn-3-al has grown into much more than a commodity aldehyde. In academic labs, process groups, and startup incubators, teams look for scalable, reliable sources of this building block to imagine new catalysts, extend natural products, or push high-performance polymer design. Our in-house chemists are always on call to review new transformation concepts, recommend compatible co-reagents, or look at alternative synthetic routes. From custom fill volumes to blending with specific inhibitors for sensitive applications, our manufacturing setup pivots quickly to supply what an innovator requests.
We continue expanding our application support: sharing process-optimized parameters, clear PCR checks, and best practices in large-scale alkynylations or C–C coupling. Researchers building next-generation materials value our willingness to trial small lots, implement packaging changes, or investigate novel stabilizers. That partnership ethos keeps our operation nimble and customer-led, not stuck in a “sell then forget” distribution approach.
Out in the field, common headaches with Propyn-3-al still echo through technical calls: questions about shelf stability, managing small leaks, method development for downstream reactions, or the unintended side reactions triggered by trace oxygen. Every one of these has roots in material quality or handling. We see real improvements from using low-permeability liners in our containers, purging every drum with dry nitrogen, and tightly monitoring temperature through the entire supply journey.
Our QC group developed compatibility charts with standard solvents and stabilizers, advising customers on best matchups for their specific application. We also offer remote support with test method validation—running comparative GC and NMR checks on-site or in partner labs to verify purity where customers lack strong internal analytics. By solving problems before a full batch run, we prevent loss of valuable time and resources for everyone involved.
Batch inconsistencies often point back to improper storage, missed drum rotations, or leaks in transfer hoses. Sharing our long view—how we learned the hard way not to cut corners—customers adopt similar best practices. Our willingness to report, correct, and share technical missteps supports long-term partnership and trust.
Every new project, whether in medicinal chemistry, coatings, or crop science, introduces another use case and another potential production tweak. The market moves increasingly toward specialty blends, high-purity requirements, and short lead times. Our own R&D cycle, built off customer consultation, adapts to these pressures—not by widening product lines, but by continually refining the manufacturing ecosystem for Propyn-3-al itself. We prioritize the kind of manufacturing evolution that supports both mainline production and custom requests without diluting our resource focus.
Recent collaborations with advanced intermediates teams and sustainable chemistry groups led to in-process improvements with downstream waste minimization in mind. We take pride in walking through late-stage scale-up problems on a customer call, offering open access to our analytics, and hosting collaborative troubleshooting between plant and lab. As synthetic chemistry stretches into green chemistry, biotransformations, and new material classes, we keep Propyn-3-al reliable and available—not just as a reagent, but as an enabler of progress across scientific domains.
Supplying a chemical as reactive as Propyn-3-al doesn’t just require technical savvy. It demands full-time commitment, hands-on attention, and an honest channel of communication from our plant to your project. That’s the perspective we bring: the grounded view of the manufacturer, where every specification, every drum, and every conversation builds a foundation for breakthroughs in chemistry—one reaction at a time.