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HS Code |
153929 |
| Chemical Name | Propanamide |
| Chemical Formula | C3H7NO |
| Molar Mass | 73.09 g/mol |
| Cas Number | 79-05-0 |
| Appearance | White crystalline solid |
| Melting Point | 81-83 °C |
| Boiling Point | 213-215 °C |
| Density | 1.06 g/cm³ |
| Solubility In Water | Soluble |
| Iupac Name | Propanamide |
| Pubchem Cid | 7848 |
| Smiles | CCC(=O)N |
| Flash Point | 108 °C |
| Odor | Slightly ammoniacal |
As an accredited Propanamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Propanamide is packaged in a 500g amber glass bottle, featuring a tightly sealed cap, hazard labels, and clear chemical identification. |
| Shipping | Propanamide should be shipped in tightly sealed, labeled containers, protected from moisture and incompatible substances. It is typically transported at ambient temperature, away from heat or ignition sources. Ensure compliance with local and international regulations, including appropriate UN labeling and documentation, and use proper protective equipment when handling during shipment. |
| Storage | Propanamide should be stored in a tightly closed container in a cool, dry, well-ventilated area away from incompatible substances such as oxidizing agents. Protect it from moisture, direct sunlight, and sources of ignition. Ensure proper labeling and avoid prolonged or repeated exposure. Use appropriate personal protective equipment when handling, and store following all relevant regulations and safety guidelines. |
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Purity 99%: Propanamide Purity 99% is used in pharmaceutical synthesis, where it ensures minimal impurities in active pharmaceutical ingredient production. Melting Point 85°C: Propanamide Melting Point 85°C is used in polymer manufacturing, where it enables precise thermal processing for uniform polymer chain formation. Molecular Weight 73.09 g/mol: Propanamide Molecular Weight 73.09 g/mol is used in chemical reagent formulations, where it allows for accurate stoichiometric calculations in laboratory reactions. Viscosity Grade Low: Propanamide Viscosity Grade Low is used in specialty coatings, where it facilitates easy mixing and smooth application on surfaces. Stability Temperature 120°C: Propanamide Stability Temperature 120°C is used in high-temperature adhesive formulations, where it maintains structural integrity during curing processes. Particle Size <50 microns: Propanamide Particle Size <50 microns is used in powder metallurgy, where it enables homogeneous blending with metal powders for sintered components. Water Solubility High: Propanamide Water Solubility High is used in water-based agrochemical solutions, where it guarantees rapid and complete dissolution for effective spraying. Analytical Grade: Propanamide Analytical Grade is used in chromatography standards, where it achieves reliable calibration for trace analysis. Reactivity Low: Propanamide Reactivity Low is used in inert atmosphere reactions, where it prevents side reactions and unwanted byproduct formation. Odorless Property: Propanamide Odorless Property is used in cosmetic ingredient formulations, where it eliminates interference with fragrance profiles. |
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Propanamide might not be the product you find in everyday conversations, but behind the scenes, it plays key roles across a range of industries. As someone who’s spent years observing chemical manufacturing and its practical touchpoints, I’ve come to notice how Propanamide quietly enables progress for scientists, manufacturers, and even regulators. Its systematic name, propionamide, signals its roots in amides—the backbone of numerous compounds shaping modern products.
At a glance, Propanamide comes off as a simple, efficient solvent and a dependable intermediate. Its formula—CH3CH2CONH2—makes it structurally straightforward. It typically presents as a white crystalline solid, notable for its stability in regular handling and transport. People use Propanamide for processes that demand clarity, consistency, and safety. Its moderate melting point and solubility mean handling doesn’t come with the unpredictability or hazards tied to volatile compounds.
Laboratories count on Propanamide’s ability to act as an intermediate during synthesis. This isn’t just theoretical use. Thousands of researchers benefit from its reliable behavior, especially when synthesizing pharmaceuticals and specialty chemicals. Its value doesn’t end with organic chemistry. Textile industries, for example, sometimes use Propanamide to modify fiber properties or as part of dyeing procedures.
Propanamide’s story is a quiet one, but a powerful one. My own experience visiting chemical plants in the American Midwest has shown just how often factory managers favor products that deliver predictable performance. They don’t often go for the newest formula, but rather those with a strong safety record, solid environmental profile, and a track record of regulatory compliance. Propanamide offers all these, making it a unique staple in an industry that doesn’t often tolerate surprises.
People often wonder where Propanamide stands compared to other amides or related chemicals. Take acetamide or urea, for example. Both have their loyal supporters. But Propanamide draws attention through its blend of manageable toxicity, moderate reactivity, and good solvent capabilities. Its structural composition allows it to bridge the gap between lighter amides and bulkier alternatives while providing unique properties.
From a regulatory perspective, Propanamide strikes a healthy balance. It doesn’t draw the red flags of more hazardous compounds and tends to pass hazard scrutiny in established manufacturing environments. This means lower risk for teams in charge of storage, disposal, and day-to-day handling. The chemical’s moderate toxicity profile means training staff remains simple, and safety investments stay within reasonable bounds.
I remember sitting in on a safety training course at a leading agrochemical facility, where a trainer told me, off record, "What makes Propanamide special isn’t what it does, but all the trouble it saves us." In the world of industrial chemicals, a product that doesn’t demand constant revision of handling practices stands out—even more so when product consistency is a must for downstream quality assurance.
Let’s talk about typical uses. One major application is as a raw material, where Propanamide serves as a bridge compound during the synthesis of other chemicals. In pharmaceutical research, for example, Propanamide’s amide group proves essential for developing new molecules with tailored characteristics. Scientists use it to test reactions before scaling up to more expensive or sensitive compounds.
You’ll also find Propanamide showing up in agricultural chemistry. Producers crafting fertilizers or crop additives sometimes turn to Propanamide, relying on its compatibility with other ingredients and its controlled reactivity. This lets farmers and agricultural researchers push for higher crop yields or robust pest resistance without overhauling existing infrastructure.
Beyond the laboratory, its low volatility and stability mean Propanamide rarely causes headaches for logistics teams. Storage doesn’t require elaborate systems, and shipping routes rarely see drastic changes just to accommodate Propanamide pallets. This matters in global supply chains, where adaptability and fast response outmatch complexity. If you’ve ever worked with budget-savvy procurement departments, you know how much smoother life can get with a chemical that doesn’t throw curveballs at warehousing and transportation teams.
You might hear arguments that acetamide, given its broader history, covers many of the same bases. It’s true—acetamide often appears as a competitor, sharing similar solubility and reactivity profiles. That being said, acetamide brings with it a higher propensity for forming impurities under certain conditions. In my own chemistry coursework, it was clear acetamide’s byproducts can complicate purification efforts, which in turn drags out timelines and inflates costs. Propanamide helps sidestep some of these complications, bringing less noise and fewer impurities into reactions.
Propanamide also has an edge in certain temperature-sensitive applications. While some related amides can break down under modest heat, Propanamide’s melting point keeps it in the running for both low- and slightly higher-temperature procedures. That flexibility means you get fewer product failures in plant settings, and maintenance teams can focus attention elsewhere.
Compared to urea or thiourea—both of which hold space in industrial and agricultural chemistry—Propanamide never feels excessive or underwhelming. Urea boasts strong fertilizing power, and thiourea’s reactivity enables unique commercial syntheses, particularly in textiles and electronics. But the handling profile of Propanamide, with its low volatility and manageable toxicity, offers advantages for processes built on adaptability and steady supply.
Like every product, Propanamide is no stranger to challenges. One persistent issue involves sourcing. While large-scale users rarely feel a pinch, smaller labs and educational institutions sometimes struggle to secure consistent supply, especially as larger buyers can lock in longer-term contracts or buy in bulk.
Environmental impact captures more regulatory attention these days, with every new round of legislation adding to record-keeping and monitoring demands. The byproducts of Propanamide production, as outlined by environmental agencies, include organic residues that call for careful management. This situation creates opportunities and headaches alike. For one, plants must implement robust waste tracking systems and treatment options. Simple disposal just doesn’t pass environmental muster any longer.
Small users and industry newcomers can band together for group procurement. By pooling orders, these organizations can reduce cost pressures and maintain steady inflows. Academic networks, for example, have piloted these models during funding cycles, offering smaller research labs a voice in negotiations typically held by massive institutions.
Tackling environmental footprint means treating Propanamide’s waste steams with more targeted approaches. Activated carbon filtration—already a mainstay in other sectors—has shown strong promise here. Some innovators even experiment with catalytic breakdown, driving contaminants toward safer, neutral end products. These solutions might seem technical but get at a simple truth: waste isn’t going away on its own, and community accountability beats regulatory fines any day.
Manufacturers have begun investing in closed-loop systems. In several large installations across Europe and Asia, chemical plants recover and recycle amides, including Propanamide, re-introducing them into early production stages. This not only trims down waste but chips away at raw material needs. It shows there’s a practical commitment to standing up for environmental quality, backed up by real-world investment rather than press release promises.
These discussions always take me back to lessons learned through hands-on fieldwork. I’ve seen how Propanamide holds real value for those needing a blend of reliability, safety, and flexibility. Visiting mid-sized facilities in Japan last year, I noticed foremen rarely care about the big picture marketing claims. They care about what causes stoppages, what drives up health and safety budgets, and what opens companies to regulatory scrutiny. Propanamide’s track record speaks for itself—it doesn’t gum up equipment, its storage guidelines rarely require custom solutions, and operators growing up with chemical manufacturing quickly learn to respect its dependability.
These same foremen do, though, ask tough questions about price pressures and the slow, grinding rise of compliance overhead. Their insight points toward a shared challenge. As a product matures, it risks being seen as a background player—a piece of industrial furniture. But in an age of rapid regulatory shifts, that image stops matching reality. Long-term users start to notice the balance: a chemical flexible enough to fit diverse needs but straightforward enough to escape the swirl of new headline-grabbing hazards.
It might seem far-fetched, but chemicals like Propanamide shape life in invisible ways. Look at pharmaceuticals. The gap between concept and medicine on the shelf widens without intermediates that deliver clean, predictable reactions. Propanamide’s crystal form delivers quality control that drives innovation forward. Manufacturers never truly compete solely on price—they compete on uptime, batch purity, and the skill to meet sometimes punishing delivery schedules.
Consumer products, from textiles to plastics, depend on supply chains that don’t collapse under strain. If you’ve ever dealt with delayed shipments for even straightforward raw materials, you’ll appreciate why Propanamide’s simplicity and manageable logistics can mean the difference between steady revenue and production bottlenecks. Smaller operators, who can’t afford to gamble on unproven alternatives, gravitate to Propanamide in the hope that what worked decades ago still delivers today.
The next stage for Propanamide likely involves evolving production standards and finding creative solutions for legacy waste issues. The market’s gone from tolerating minor inefficiencies to demanding substantial environmental responsibility. Producers, particularly those with cross-border operations, face new questions. Can they tighten emissions further? Will they invest in cleaner sourcing, or push back against higher costs?
Industry leaders are pushing toward greater transparency around production and distribution. Some companies publish detailed environmental reports, helping buyers pick suppliers who walk the talk when it comes to sustainability. Others pass savings on through better inventory management. These trends suggest a competitive landscape shaped not simply by who can supply Propanamide, but who can back up claims with audits, data, and peer-reviewed evidence.
For buyers and end-users, adaptability matters. I’ve seen several large research programs hit the brakes because an intermediate like Propanamide went on backorder. Smart planners build relationships with multiple suppliers. Larger organizations encourage teams to develop in-house protocols for testing substitutes, while smaller outfits pool intelligence with peer labs instead of flying solo. Even a slight hiccup in supply or regulation can throw off months of project timelines, so building redundancy has become part of the playbook.
Legislation increasingly shapes Propanamide’s future. Stricter labeling and documentation requirements put pressure on even seasoned producers. Importers now audit supply chains more frequently—tracing Propanamide batches from point of origin to their final use.
Staying ahead of regulation takes experience and investment. Managers must train teams for more rigorous record-keeping, invest in software to track inventory, and—maybe most crucially—create partnerships with inspectors and compliance officers. In this space, the companies who see regulators as collaborators, not adversaries, operate at an advantage. They get early warnings of incoming changes and often influence best practices that others eventually adopt.
These dynamics ultimately flow downstream. End-users rely on trust: that chemicals bought under one set of rules remain safe and compliant as guidelines shift. I remember a roundtable in Frankfurt where chemical engineers warned of being caught flat-footed when regulations in the European Union underwent overhaul. One team had to re-test a year’s worth of inventory at significant cost, underscoring the penalty for falling behind.
Every product, Propanamide included, brings a bundle of reward and responsibility. The balance depends on individual context—lab environment, plant floor, or supply chain office. Risk lies less in Propanamide’s inherent properties than in how people plan, source, and handle it.
What gives me hope is watching organizations form peer groups, share best practices, and invest in staff development rather than cut corners. Chemistry, for all its complexity, thrives on open dialogue and the willingness to adapt. When asked what could dull Propanamide’s bright future, those in the know mention only stagnation—the belief that yesterday’s solution stands up under tomorrow’s scrutiny.
Through my own years tracking chemical products, Propanamide still stands out as one of the unsung workhorses of industrial chemistry. It lacks flash, doesn’t make headlines, yet its reliability continues to win quiet respect. Operators prefer it not because it promises razzle-dazzle, but because it delivers on time and on spec.
In an era where chemicals too often draw attention for what goes wrong, Propanamide offers a case study in steady success. It anchors processes that must perform under tight standards. For that reason alone, the outlook remains strong for both producers who adapt and end-users who build flexible, robust procurement and compliance strategies. Every stage in its journey—from synthesis to final use—tells a story about doing things right, learning from each batch, and keeping safety, sustainability, and consistency at the forefront.