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HS Code |
884710 |
| Product Name | Gamma-Butyrolactam |
| Cas Number | 96-48-0 |
| Molecular Formula | C4H7NO |
| Molecular Weight | 85.10 g/mol |
| Appearance | Colorless to pale yellow liquid or solid |
| Melting Point | 23-25°C |
| Boiling Point | 204°C |
| Density | 1.116 g/cm³ at 20°C |
| Solubility In Water | Miscible |
| Flash Point | 97°C |
| Purity | Typically ≥99% |
| Refractive Index | 1.465 |
| Synonyms | 2-Pyrrolidone, 2-Oxopyrrolidine |
| Odor | Odorless |
| Storage Temperature | Store at room temperature |
As an accredited Gamma-Butyrolactam factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Gamma-Butyrolactam is packaged in a 500g amber glass bottle, sealed with a screw cap and labeled for laboratory use. |
| Shipping | Gamma-Butyrolactam should be shipped in tightly sealed containers, protected from moisture and direct sunlight. Transport in accordance with local and international regulations for the shipment of chemicals. Use appropriate hazard labeling and provide safety data documentation. Handle with care to prevent leaks or spills during transit, ensuring compliance with safety standards. |
| Storage | Gamma-Butyrolactam should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from moisture, heat, and sources of ignition. It should be kept away from strong oxidizing agents and acids. Use appropriate chemical storage cabinets, and label containers clearly. Regularly check for leaks or deterioration, and follow all relevant safety and local regulatory guidelines. |
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Purity 99.5%: Gamma-Butyrolactam with 99.5% purity is used in pharmaceutical synthesis, where it ensures high-yield production of active pharmaceutical ingredients. Molecular Weight 99.13 g/mol: Gamma-Butyrolactam with a molecular weight of 99.13 g/mol is used in polymer manufacturing, where it delivers consistent polymer chain length and uniform material properties. Melting Point 26°C: Gamma-Butyrolactam with a melting point of 26°C is used in specialty coatings, where it promotes smooth film formation and improved surface finish. Viscosity Grade Low: Gamma-Butyrolactam with low viscosity grade is used in industrial cleaning formulations, where it enables rapid dissolution of contaminants. Particle Size ≤ 5 μm: Gamma-Butyrolactam with particle size ≤ 5 μm is used in catalyst preparation, where it enhances catalyst dispersion and reactivity. Stability Temperature up to 200°C: Gamma-Butyrolactam stable up to 200°C is used in high-temperature resin systems, where it maintains structural integrity during processing. Water Content < 0.2%: Gamma-Butyrolactam with water content less than 0.2% is used in moisture-sensitive syntheses, where it minimizes hydrolysis risk and increases product shelf life. Refractive Index 1.452: Gamma-Butyrolactam with refractive index of 1.452 is used in optical polymer blends, where it improves light transmission and clarity. Residual Solvents < 50 ppm: Gamma-Butyrolactam with residual solvents below 50 ppm is used in electronic material fabrication, where it guarantees purity for high-performance electronic components. pH Neutral: Gamma-Butyrolactam with neutral pH is used in biochemical assays, where it preserves enzyme activity and assay accuracy. |
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People in the chemistry and manufacturing fields come across a variety of specialty chemicals every day, but Gamma-Butyrolactam (GBL) stands out for a reason worth paying attention to. It’s not just another item tucked away in the catalogue. In my years walking the corridors of chemical plants and chatting with process engineers, I’ve seen Gamma-Butyrolactam play a quietly pivotal role in many sectors—some you might expect, others that come as a surprise. Exploring why it matters and what sets it apart opens the door to a better understanding of its everyday impact.
Gamma-Butyrolactam, sometimes called 2-pyrrolidone, grabs attention for its balance of properties. Unlike some specialty chemicals that only serve one narrow purpose, this compound steps comfortably into a range of roles. Its molecular structure gives it stability at room temperature, a predictable melting point, and it dissolves well in water. This predictability means chemists and engineers trust it—there’s no fuss getting it to behave in the way their processes demand. I remember being introduced to it during a manufacturing run at a plastics plant, where consistency meant fewer headaches and less downtime. Practical experience with it translates into real-world reliability on the factory floor.
Looking at Gamma-Butyrolactam from a technical angle, the fine points set it apart. You’ll find the pure, clean crystalline powder handles easily, with low dust and reliable flow. The melting point usually comes in near the 90°C mark, and the boiling point sits safely higher, keeping it thermally stable for common industrial uses. At my last job in a specialty fibers facility, these qualities meant technicians faced fewer blocks in the production line. Handling and storing this compound usually presents less hassle compared to sticky or unpredictable alternatives, and anyone who’s had to clean up a chemical spill will know how important that is.
Quality also counts. Gamma-Butyrolactam found in professional supply chains typically tests at over 99% purity by modern analytical methods, like gas chromatography. Impurities below trace levels reduce the risk of unwanted byproducts, giving confidence to folks turning raw materials into precision-engineered goods. In fields where even minor deviations throw off an entire batch—a pain point in pharmaceuticals and electronics—this consistency becomes a reason to pick Gamma-Butyrolactam.
Gamma-Butyrolactam doesn’t pigeonhole itself into just one corner of industry. It’s earned its place in a variety of jobs, many of which I’ve bumped into first-hand or heard about from peers. Its role often starts as a precursor—a building block in bigger, value-added products. In the world of polymers, Gamma-Butyrolactam takes center stage for making nylon-4, a durable, versatile plastic. I’ve walked the production floor as extruders and spinning lines worked through piles of it, transforming powder into tough synthetic fibers. These fibers find a home in textiles and engineering plastics.
Further down the chain, Gamma-Butyrolactam helps craft pharmaceuticals. Its structure sets the foundation for several medications that require precision at every step. Chemists appreciate how reliably it reacts, lowering the odds of running into costly or wasteful mistakes. Even in the field of specialty solvents, where everything from electronics cleaning to paint stripping comes up, Gamma-Butyrolactam has shown its usefulness. Its gentle solvency means technicians can strip contaminants from delicate surfaces without tearing apart circuit boards or sensitive parts.
Beyond plastics and pharma, Gamma-Butyrolactam slips into ink production, agrochemicals, and coatings. The inkjet business, for example, uses it to help pigments spread and stick evenly, which matters to printers and graphic designers elbow-deep in color proofs.
It’s easy to think of chemical substitutions as all the same. After all, isn’t one white powder almost like another? In practice, subtle differences shape everything from costs to safety. During a pilot program at a major coatings plant, I saw Gamma-Butyrolactam tested head-to-head with alternatives like N-methyl-2-pyrrolidone (NMP). Both serve as solvents, but the difference stood out as soon as it came time to check for residue and worker safety. NMP carries more government scrutiny because of its toxicity and environmental risks. Gamma-Butyrolactam won out since it met the technical requirements and kept regulatory headaches lower.
Some direct competitors also involve more expensive waste disposal or stricter on-site controls. These differences don’t just gum up the workflow; they add real dollars to production. In my experience, decision-makers prefer Gamma-Butyrolactam where its profile matches up since it simplifies everything from shipping to employee protective gear training. The cumulative effect keeps operational costs in check while meeting legislative demands—a combination any plant manager can get behind.
No chemical can be treated like just another sack of sugar. Working around Gamma-Butyrolactam brings responsibilities, even with its generally favorable safety profile. Handling it requires the usual gear—gloves, protection for eyes, and good airflow. These steps help keep workplace exposure down and avoid irritant effects that come with careless handling. I’ve heard stories from old-timers about the early, less-regulated days, and it’s clear the improvements in handling protocols pay off in health and efficiency.
Storage is straightforward. As long as containers stay sealed and dry, the risk of accidental reactions stays low. This predictability matters for warehouses and supply chain managers who juggle inventories across distant sites. Industry-wide, most facilities dedicate routine checks and safety audits to keep compliance watertight.
Attention to sustainable practices has increased lately. The regulatory landscape keeps tightening around chemical use, so materials get regular review for health and environmental impact. I’ve sat in on many meetings with compliance teams—nobody wants an unexpected audit or fine. Compared to similar solvents and monomers, Gamma-Butyrolactam usually lands lower on the list of regulatory headaches. Its relatively low toxicity, when compared to NMP and dimethylformamide (DMF), makes it easier to keep air and water emissions below problem thresholds.
That said, nobody can afford to ignore disposal considerations. Gamma-Butyrolactam rarely builds up in large amounts in the environment since most operations recycle or incinerate waste material. That’s the story in the plants I’ve worked with. Waste treatment teams take the usual steps—neutralizing residues, following best practices for waste streams. This isn’t just company policy; it’s backed up by local and global guidelines—keeping both public trust and regulatory approval intact.
In the toolbox of available lactams and related compounds, Gamma-Butyrolactam finds its niche. Let’s put it side by side with NMP, DMF, and even big players like epsilon-caprolactam (used for nylon-6 production). While the latter might win out in certain mass production settings, Gamma-Butyrolactam’s profile checks off the right boxes for companies seeking a tool that’s effective without excess baggage. In my own work, switching between these compounds pointed out the practical tradeoffs—ease of permits, flexibility in process chemistry, and better health outcomes for workers.
Unlike NMP, with its known reproductive and developmental risks, Gamma-Butyrolactam’s documented safety data reads less ominously for routine use. DMF carries a suspect profile for liver toxicity, putting pressure on firms to find alternatives. In contrast, Gamma-Butyrolactam lets operations meet both technical goals and social responsibility—an important factor as supply chain pressures and public perception shape company policy.
It’s not just about escape from compliance problems. Switching from the likes of caprolactam to Gamma-Butyrolactam sometimes leads to purer, more specialized end-products—especially in nylon-4 and advanced engineering plastics. This has been especially visible in the high-performance materials field, where demand for thermal and chemical resistance continues to grow. My former colleagues in materials science regularly saw customer specifications push innovation in formulations, with Gamma-Butyrolactam as a crucial raw ingredient.
Anyone who has had to keep a production line running knows that reliability trumps theory. In reality, the difference between a good and a bad batch can mean the gain or loss of client contracts, overtime hours, or even jobs. Gamma-Butyrolactam brings peace of mind for manufacturers who depend on uninterrupted flow and repeatability—the sort of qualities that keep major brands coming back. I once worked at a plant feeding automotive suppliers, and any hiccup at the input end could mean missed shipping deadlines down the chain. Gamma-Butyrolactam’s clean handling and easy incorporation into both batch and continuous processing minimized those risks.
Maintenance managers also appreciate how it helps prevent equipment fouling. Some chemical inputs tend to stick, cake up, or speed up machine wear. The clean melt and dissolution profile of Gamma-Butyrolactam means pumps, pipes, and extruders avoid those common nightmares. Downtime plummets when manufacturers can count on steady, predictable feedstocks.
No industry can claim perfection in safety or environmental responsibility, but movement in the right direction always begins with the right choices of feedstocks. Gamma-Butyrolactam stands out for its manageable health profile and fits with the trend of greener chemistry. Over recent years, I’ve watched as companies adopt more sustainable sourcing and invest in cleaner waste handling—practices that trickle down to every factory worker, end-user, and community surrounding production sites. It’s not unusual now to see Gamma-Butyrolactam pop up in environmental audits as a preferred alternative to more hazardous materials.
Regulatory compliance comes easier with such choices. Whether it’s the European REACH rules or EPA oversight in North America, working with a lower-risk compound reduces paperwork and future-proofing headaches. Fewer restrictions on shipping and handling often means smoother logistics—something anyone in supply chain management will appreciate, especially amid global disruptions.
Perfection proves elusive in industrial chemistry. Gamma-Butyrolactam performs well across the board, but room for improvement always exists. Producers and end-users regularly seek purer grades for high-stakes applications. While typical grades meet most industrial needs, pharmaceutical and electronics manufacturing sometimes require even tighter contaminant controls. I’ve talked to analytical chemists who push for continuous updates in purification technology—distillation tweaks, better solvent use, and tighter in-line monitoring. Investments here pay off in market competitiveness.
Supply security can’t be taken for granted either. Since Gamma-Butyrolactam production feeds off global chemical feedstocks, swings in raw material prices or geopolitical shifts can ripple through the supply chain. Procurement specialists know too well how constraints upstream turn into delivery delays or price jumps. Exploring alternative synthesis routes and diversifying sources give companies some insulation against these shocks.
Academic and corporate labs play an ongoing role in finding new uses and improving existing processes around Gamma-Butyrolactam. A few years ago, I participated in a collaborative effort between a major research university and an industry partner to test new catalysts for Gamma-Butyrolactam polymerization. Results pointed to more efficient, selective routes to advanced products, lowering energy consumption and material waste. As knowledge grows, more applications plug into the innovation pipeline.
Some researchers track derivatives and modified lactams for specialty coatings, adhesives, and even advanced battery materials. What began as a modest solvent or polymer precursor now sits on the drawing board for next-generation products, driven by sustainability and performance demands. Keeping an eye on the literature and meeting with R&D folks at conferences, it’s clear that Gamma-Butyrolactam continues to hold promise beyond its traditional boundaries.
Progress doesn’t happen on its own—every new step forward depends on listening to feedback from people who work with these materials day in and day out. Operators, engineers, safety officers, and researchers each bring up points that shape the future of Gamma-Butyrolactam in real-world use. In my experience, solutions that respect their hands-on knowledge lead to smoother introductions of new grades, certifications, and application guidelines.
This process of continuous feedback—testing, reporting issues, and closing loops—reveals opportunities for safer work environments and reduced risk. In most companies I’ve interacted with, open communication between departments means that regulatory, purchasing, and technical teams stay on the same page about both what’s working and what invites a change.
Some markets resist switching to Gamma-Butyrolactam, even when the data and field experiences stack up in its favor. Old processes and equipment sometimes anchor operations to legacy materials, and change bumps into inertia or up-front costs. Years ago, I watched a coating manufacturer hesitate to switch due to requalification testing and the need to tweak a few legacy machines. The tipping point came with a supply disruption in one of the competing solvents, making the business case for the move crystal clear.
Barriers don’t last forever. Plant trials and pilot-scale tests help reduce uncertainty. Once employees get hands-on experience, new routines become habits and the early headaches fade. Process audits and customer feedback drive improvements, making future transitions even smoother. I’ve seen the learning curve flatten out as new hires start with Gamma-Butyrolactam in their training, never seeing the pain points of older technologies.
Solving supply chain and technical challenges takes close cooperation. Suppliers who invest in transparency and strong logistics partnerships help downstream companies weather surprises. Open supplier audits, ongoing communication, and collaboration on quality protocols cut across traditional buyer–seller lines, turning business relationships into long-term partnerships. In a few forward-thinking companies, joint ventures for synthesis and recycling of Gamma-Butyrolactam have begun to appear. My visits to such facilities have shown what’s possible when industry works together across old boundaries.
Technical solutions also stem from creative partnerships between users and suppliers. Sharing real-world challenges and technical requirements encourages manufacturers to invest in relevant improvements. Regular training for warehouse staff and end-users rounds out the effort, instilling the practical know-how that keeps operations safe and efficient.
Gamma-Butyrolactam tells a story of evolution in chemical manufacturing. It has grown from a modest industrial ingredient into a backbone for advanced materials, specialized solvents, and high-purity pharmaceuticals. Its unique profile—clean handling, safety, and consistent supply—delivers on the needs of today’s industrial landscape. In my time across a variety of plants and labs, I’ve watched it become a preferred choice for companies that value reliability and flexibility without sacrificing responsible practices. As innovation marches forward, Gamma-Butyrolactam stands among those unsung materials that quietly enable progress, every day.