|
HS Code |
539132 |
| Chemical Name | 1-Butyne |
| Synonyms | Ethylacetylene |
| Molecular Formula | C4H6 |
| Molar Mass | 54.09 g/mol |
| Cas Number | 107-00-6 |
| Appearance | Colorless gas |
| Odor | Strong, garlic-like |
| Boiling Point | 8 °C |
| Melting Point | -123 °C |
| Density | 0.693 g/cm³ (at 25 °C as liquid) |
| Flash Point | -82 °C (closed cup) |
| Solubility In Water | Slightly soluble |
| Vapor Pressure | 2100 mmHg (at 21.1 °C) |
| Stabilizer | Typically contains copper inhibitor |
| Un Number | 2452 |
As an accredited 1-Butyne [Stabilized] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 1-Butyne [Stabilized], 99%, 400g, supplied in a sealed, corrosion-resistant metal cylinder with safety valve and clear hazard labeling. |
| Shipping | 1-Butyne [Stabilized] should be shipped in tightly closed, properly labeled containers, compliant with DOT regulations for flammable liquids (UN 3294, Class 3, Packing Group I). It must be kept away from heat, sparks, and incompatible substances, and transported in a well-ventilated, cool, and secure area to prevent accidental releases or reactions. |
| Storage | 1-Butyne [Stabilized] should be stored in a cool, dry, well-ventilated area, away from sources of ignition, heat, and incompatible substances such as oxidizers and acids. Store in tightly sealed containers made of materials resistant to hydrocarbons. Keep away from direct sunlight and ensure containers are properly labeled. Use explosion-proof storage and ground all equipment to prevent static discharge. |
|
Purity 99%: 1-Butyne [Stabilized] with purity 99% is used in organic synthesis of pharmaceutical intermediates, where high purity ensures consistent reaction yields. Boiling Point 8°C: 1-Butyne [Stabilized] with boiling point 8°C is used in laboratory-scale gas chromatography, where low boiling point allows for effective volatilization and separation. Stability Temperature up to 40°C: 1-Butyne [Stabilized] with stability temperature up to 40°C is used in industrial polymer modification, where thermal stability prevents premature decomposition. Vapor Pressure 3.2 atm (20°C): 1-Butyne [Stabilized] with vapor pressure 3.2 atm at 20°C is used in chemical vapor deposition processes, where controlled vapor release enables uniform thin film formation. Low Water Content <0.02%: 1-Butyne [Stabilized] with water content less than 0.02% is used in moisture-sensitive coupling reactions, where minimized moisture content maintains catalyst effectiveness. Stabilized With Toluene: 1-Butyne [Stabilized] with toluene is used in safe transport and storage of alkyne raw material, where the stabilizer reduces risk of polymerization and hazardous decomposition. |
Competitive 1-Butyne [Stabilized] prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
We’ve been producing and handling 1-Butyne [Stabilized] for years in our own plants and have seen how consistent quality and reliable delivery mean everything once projects ramp up. This alkyne compound features a triple bond, with the molecular formula C4H6, and from synthesis right through to storage, our technicians keep a close eye on every step. The stabilized grade builds in a margin of safety and storage security that makes our process safer for operators and for every downstream user. Problems crop up when trace contaminants sneak in, or stability falls short—so every batch is checked for color, purity, and moisture content before release. Our stabilized grade comes with premium inhibitors, and we use stainless steel tanks and lines to minimize risk of unwanted reactions.
Chemists and plant managers often ask about the advantages of working with the stabilized form compared to raw or unstabilized butyne. In our experience, this formulation doesn’t just extend shelf life; it solves headaches in storage, especially in warmer climates or when material must be held before blending or reaction. Unstabilized alkyne often polymerizes or decomposes—resulting in yield failures, unwanted byproducts, and serious operational risk. With our stabilized grade, packing and storage involve consistent inhibitor levels, strict attention to tank temperature, and regular quality checks. That’s how we secure repeatable performance batch after batch, and why many long-term customers stick with stabilized variants even when contract specs allow alternatives.
We produce 1-Butyne [Stabilized] as a colorless, highly volatile liquid featuring a boiling point around 8°C at atmospheric pressure. That volatility calls for experience in filling, shipping, and field handling—not just lab skills. It requires vapor-tight systems, leak-tested valves, and a waiting inventory of backup gaskets and repair tools. In the plant, trace water is a major concern since water causes decomposition and polymer formation. Each production run is tracked for purity levels—typical content exceeds 99%—and our labs keep records of residual moisture. We hold stabilized butyne in pressurized steel cylinders, and every shipment includes a certificate showing actual specs. Inhibitor levels are measured, not estimated, so every downstream process, from alkylation to coupling reactions, runs at predictable efficiency.
Unlike alkenes or saturated hydrocarbons, the triple bond in 1-Butyne enables richer chemical transformations—coupling, addition, and specialized functionalization. We’ve worked with teams scaling up Grignard reactions and palladium-catalyzed couplings, and stabilized butyne stands up to long reactor residence times and temperature swings better than unstabilized streams. These differences show up on actual plant floor results, not just theoretical yields. Our operators have learned that minimizing oxygen and moisture during transfer is key since the inhibitor loses strength with repeated venting, and old drums can lead to clouded, off-color contents. Rarely does customer trouble come from inside the reactor; the usual challenge is in storage, transit, or when a tank is left idle over weekends without circulation or temperature control.
In our daily work, most demand for 1-Butyne [Stabilized] comes from developers in advanced material science, pharmaceutical intermediates, specialty polymers, and custom organic synthesis. The stabilized format protects both health and project budgets, especially during scale-ups where errors or impurities in feedstock don't just mean failed runs, but whole weeks of lost production. We’ve run complaint investigations involving vendor-supplied unstabilized product—yellowed, degraded, and impossible to clarify for downstream use without distillation or waste. When stabilization protocols are followed from our plant all the way to a customer’s reactor, call-backs and technical problems drop. This isn’t just a claim based on brochure text; it’s a direct outcome measured over years of plant operation and customer feedback.
Customers who’ve switched to our stabilized 1-Butyne often report sharper, more predictable reactivity in cross-coupling and chain-extension reactions. They avoid build-ups of polymer in lines or residue in reactor jackets—problems that keep maintenance teams busy and spike downtime. With stabilized butyne, the product remains clear, free-flowing, and within specification for longer periods. Rather than requiring immediate use, our stabilized solution lets our partners inventory chemical stock and schedule production on their own terms. For some customers, this flexibility alone builds in a competitive edge—reducing the risk of both supply chain interruptions and over-ordering reactive materials destined for scrap.
Unlike traders or third-party resellers, as the primary manufacturer, we control both the front end and backend of the process. Our staff receive routine training not just in physical handling but in situ troubleshooting—how to manage the quick pressure rises during transfer, spotting telltale signs of inhibitor depletion, and verifying the condition of vessel linings. Direct access to both research chemists and production operators allows us to adjust stabilizer levels or shift grades to meet emerging needs from long-term users. Many of these improvements have come from on-the-floor conversations, not from industry bulletins.
Feedback from the field influences our formulation. Over the past decade, we’ve improved the inhibitor package to withstand extended transportation times, especially for overseas routes or during customs clearance holdups. Our stabilizers have been developed through iterative testing to resist breakdown triggered by trace metals or incompatible elastomer seals. Our tank farm teams pioneered a better nitrogen blanketing method after encountering pressure drift in old-style shipping containers, and we revised our loading procedures to cut the risk of overfill and temperature excursions.
Chemically, stabilized and unstabilized 1-Butyne might seem identical, but the real-world difference emerges through safer storage, longer shelf life, and lower maintenance for end users. The unstabilized version is highly sensitive to temperature and tends to degrade or form viscous, unusable masses. In the market, some buyers have tried to substitute with compounds like 2-Butyne or propyne—usually for cost reasons or in an effort to simplify inventory. The trouble is that reaction pathways diverge quickly and separation post-reaction becomes more difficult, especially in pharmaceutical or electronics applications. We’ve seen yield loss, contamination, and increased rework on projects where substitutes were trialed in search of a “cheaper” alternative.
Not all stabilizers behave the same in every process. Our own stabilized grade has been tested in customer pilot plants running both batch and continuous systems. Minor differences in inhibitor concentration have made a noticeable impact on reactivity profiles in catalytic hydrogenations or metal-catalyzed functionalizations. Where unstabilized butyne needs near-immediate use and constant temperature supervision, our product resists the urge to polymerize, won’t clog fine filters, and runs cleanly through pressure-swing absorption purification.
Supply chain managers benefit from this reliability. Shipping stabilized product reduces delays caused by hazardous material incidents, storage committee reviews, and lengthy regulatory questionnaires. Packaging remains clear of deposits and, with spaced monitoring intervals, quality drift can be spotted well before it reaches end users. Our technical support staff assists in resolving field failures with root-cause analyses, and often, the culprit traces back to a lapse in stabilization.
Our production lines for 1-Butyne [Stabilized] reflect purpose-built planning for scale, safety, and purity, anchored by decades of chemical plant experience. We invest in regular turnaround and leak test cycles for fill lines, using high-purity nitrogen to maintain atmosphere quality. As requests for new applications surface—from advanced cross-linking for elastomers to intermediates in flavor compound synthesis—we tailor support, drawing on the practical realities faced by both R&D teams and full-scale plant engineers.
We maintain strong relationships with regulatory compliance personnel and first responders. We’ve seen how regulatory landscapes can shift—such as new flammable storage mandates or more detailed chemical traceability rules. These changes highlight the value of a stabilized grade: emergency plans can be streamlined, tank farm audits shortened, and documentation becomes easier. The traceable certificate of analysis with each shipment reassures safety officers that every cylinder, drum, or ISO tank meets reported quality.
Routine issues in handling 1-Butyne [Stabilized] include venting for pressure control and managing material return streams. Field teams benefit from our in-plant training: how to check valves before transfer and when to sample for inhibitor strength. Storage at ambient temperature works best when vessels are shaded, and our tank design includes insulation and pressure relief systems. End users running multi-ton syntheses appreciate low downtime and robust logistics, since shipping delays or split batch deliveries can compromise an entire production week.
We know the stakes: one leaking valve, one contaminated drum, or one slow customs inspection can halt a multi-million dollar project. Our staff has seen every kind of system: continuous reactors, custom glassware, on-the-fly field hoses with limited vapor recovery. We’ve helped process engineers reduce waste buildup by optimizing storage times and switching to new batches ahead of expiration. Proper stabilizer loading makes this possible.
Unplanned setbacks often begin with a cut corner—off-spec product, skipped inhibitor check, or missing inventory. Our QA tracks customer complaints to spot trends at each link in the supply chain. Feedback from long-term users suggests they value transparency about both what goes in each batch and which stabilizing chemicals are active. We refuse to cut the stabilizer package to chase a price point. End users end up with shorter shelf life, higher risk, and a heavier regulatory burden if the stabilization step is skipped. We share analytical results—not marketing blurbs—so supply chain decisions can be made with eyes open.
From filling to draining the last drop, our own teams follow strict handling guidelines. Temperature management starts with insulated intermediate bulk containers and continues with temperature monitoring during transfer. Many of our customers have adopted our in-house system, tracking retainer strength for inhibitors and keeping a “first in, first out” inventory rule to cut losses from long storage. In-house testing for free acid number and cloudiness has helped spot slow inhibitor failures before product reaches critical stages.
Polymerization is the main enemy in both storage and application. Our operators reduce this risk by avoiding copper or brass fittings, maintaining high-purity gas overlays, and recommending regular drum rotation. We’ve solved real-world field failures—such as blocked transfer lines and off-gassing inside poorly vented tanks—by providing live technical support and replacement best-practice tank design advice. In our view, stabilization is not just an add-on but a primary performance driver for maintaining operational efficiency and project safety.
What sets a reliable chemical manufacturer apart is not only equipment or paperwork but experienced personnel who track and act on minor early warning signs. Team members have stopped shipments based on a slight haze in sample draws—a choice that meant a missed delivery but avoided downstream polymer tanks or damaged customer reactors. We foster a culture where reporting concerns is not only permitted but encouraged, resulting in continuous process improvement.
We keep current with regulatory changes using both external consultants and the feedback of our field staff. Proactive auditing—rather than reactive fixes—underpins our material consistency all the way to the end user. We review incident reports on global production disruptions caused by unstable or poorly stabilized materials. Our own plant design reflects these lessons, with high-integrity materials and comprehensive ventilating and blanketing infrastructure. From raw material delivery to certification at release, we’ve built in redundancies and transparent quality checkpoints.
Customers often comment on the clean, dry, and bright appearance of our cylinders and drums, noting the lack of deposits or yellowing that signal compromised stabilizer action. Repeat buyers value that stability—knowing that with each scheduled delivery, the product will meet specification and support process yield. One recent customer in advanced electronics production reported zero trace contaminants after switching to our stabilized 1-Butyne—an operational milestone reflecting years of cumulative improvement.
We share these detailed insights because plant-level reality shapes every improvement step. Instead of generic claims, we offer data and lessons earned through hands-on production, real troubleshooting, and a culture of direct accountability. If you work with 1-Butyne [Stabilized], either at pilot or commercial scale, you benefit from protocols refined through dozens of customer audits, regulatory checks, and thousands of operating hours—each step motivated by delivering safety, cost control, and uninterrupted production.
Looking ahead, we continue to refine our stabilization technology to keep pace with demanding customer requirements. We know the pressures involved in scaling green chemistry, advanced polymers, and custom electronics compounds. New users in synthetic biology, flavor development, and aromatic intermediates seek confidence in both regulatory compliance and batch-to-batch performance. Our stabilized 1-Butyne continues to evolve through testing, customer collaboration, and a commitment to sharing both setbacks and successes.
Every drum and cylinder that leaves our facility carries the knowledge and practice of an experienced team—one that values open conversation and field-driven innovation. We believe this approach safeguards not just quality, but the trust built over decades of partnership in the chemical industry.