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HS Code |
521457 |
| Chemicalname | Propylene Carbonate |
| Casnumber | 108-32-7 |
| Molecularformula | C4H6O3 |
| Molarmass | 102.09 g/mol |
| Appearance | Colorless, odorless liquid |
| Density | 1.20 g/cm³ (20°C) |
| Meltingpoint | -49°C |
| Boilingpoint | 242°C |
| Solubilityinwater | Miscible |
| Vaporpressure | 0.03 mmHg (20°C) |
| Refractiveindex | 1.417 (20°C) |
| Flashpoint | 132°C (closed cup) |
| Viscosity | 2.5 mPa·s (25°C) |
As an accredited Propylene Carbonate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 99.7%: Propylene Carbonate with purity 99.7% is used in lithium-ion battery electrolytes, where it enhances ionic conductivity and cycle life. Viscosity 2.5 cP: Propylene Carbonate at viscosity 2.5 cP is used in paint strippers, where it improves solvency and penetration efficiency. Melting Point -49°C: Propylene Carbonate with melting point -49°C is used in cryogenic applications, where it ensures liquid stability at low temperatures. Particle Size <10 μm: Propylene Carbonate with particle size below 10 μm is used in pharmaceutical formulations, where it enables uniform dispersion of active ingredients. Stability Temperature 180°C: Propylene Carbonate with stability temperature of 180°C is used in high-temperature polymer processing, where it maintains solvent integrity and performance. Water Content <0.1%: Propylene Carbonate with water content below 0.1% is used in capacitor manufacturing, where it prevents electrical short-circuiting and enhances device reliability. Density 1.2 g/cm³: Propylene Carbonate at density 1.2 g/cm³ is used in oilfield fracturing fluids, where it improves proppant transport and fluid flow. Dielectric Constant 64: Propylene Carbonate with dielectric constant 64 is used in electrochemical capacitors, where it increases energy storage efficiency. Refractive Index 1.415: Propylene Carbonate with refractive index 1.415 is used in optical cleaning formulations, where it ensures streak-free clarity. Boiling Point 242°C: Propylene Carbonate with boiling point 242°C is used in solvent recovery systems, where it supports high-temperature operational efficiency. |
| Packing | Propylene Carbonate is packaged in a 1-liter amber glass bottle with a secure screw cap and detailed hazard labeling for safety. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Propylene Carbonate: Typically accommodates 18-20 metric tons, packed in drums or IBCs for safe, efficient transport. |
| Shipping | Propylene Carbonate is typically shipped in tightly sealed drums or containers to prevent moisture absorption and leaks. It should be stored and transported in a cool, well-ventilated area, away from heat, open flames, and incompatible substances. Proper labeling and documentation are required to comply with relevant safety and transportation regulations. |
| Storage | Propylene carbonate should be stored in a cool, dry, and well-ventilated area, away from heat sources, sparks, and open flames. Keep the container tightly closed when not in use and protect it from moisture. Store separately from strong acids, strong bases, and oxidizing agents. Use only non-sparking tools and explosion-proof equipment in the storage area. |
| Shelf Life | Propylene Carbonate has a typical shelf life of 2 years when stored in tightly sealed containers, away from heat, moisture, and light. |
Competitive Propylene Carbonate prices that fit your budget—flexible terms and customized quotes for every order.
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Many industries rely on Propylene Carbonate as an essential solvent and intermediate because of its unique molecular structure. Manufactured at our facility, Propylene Carbonate carries the chemical formula C4H6O3 and brings consistency to a range of production lines, especially where highly polar solvents factor into end product reliability. Years spent fine-tuning the synthesis and purification process made it possible to supply Propylene Carbonate that meets strict purity standards, as low water content and absence of trace heavy metals remain crucial for large-scale applications like electronics and high-performance coatings.
Our team experiences every step, from selecting propylene oxide raw material to overseeing the final distillation. Each batch reflects rigorous observation and adjustment, resulting in liquid Propylene Carbonate that pours as a transparent, low-odor fluid. Typical specifications include a purity level above 99.7%, residual moisture less than 0.1%, and color values that comply with exacting visual standards for downstream processing. Customers in lithium battery manufacturing or specialty lubricant formulation often inspect chemical purity with care; even small deviations can impact overall product yield or long-term stability. As the producer, we monitor analytical results daily, not simply to comply with technical sheets but to avoid costly, avoidable rework or complaints down the line.
Propylene Carbonate plays different roles depending on where it travels after leaving our plant. In electrolyte formulations for lithium-ion batteries, our high-purity solvent serves as a stable medium, supporting optimal ion mobility and suppressing unwanted side reactions that lead to capacity fade. Our understanding of battery electrolyte chemistry comes from working alongside cell developers who push for higher energy density and improved cyclability. In collaborations, unexpected learning has shaped our approach — a minor impurity in Propylene Carbonate can lead to gas formation inside small battery cells, so we keep our cleaning and packing equipment spotless and monitor filling operations to trace any contamination.
Beyond batteries, Propylene Carbonate winds up in paint strippers, cleaners, and degreasers. As a polar aprotic solvent, it dissolves both organic and inorganic substances efficiently, making it a sensible choice for firms replacing more hazardous solvents such as methylene chloride or NMP in paint removal or surface prep. Industrial end users report positive results: less odor, lower evaporation rates, and better control over application. We also ship material to facilities producing coatings for optical fibers, adhesives that fill critical tolerances, and select agricultural formulations where solvent power shapes dispersion quality. Many buyers choose our product not for its label, but because real process engineers recognize stable viscosity and solvent characteristics that work predictably batch after batch.
It isn’t enough to compare Propylene Carbonate to standard solvent options by laying out data on vapor pressure or boiling point. Drawing from our lab results and customer feedback, Propylene Carbonate stands out due to low toxicity, readily biodegradable profile, and ability to displace more problematic alternatives. For those running closed-loop systems or striving for emissions control, our Propylene Carbonate reduces regulatory headaches. Unlike NMP and DMF, Propylene Carbonate stays outside major restricted substance lists in many regions. Earning approvals took patient investment in process safety reviews and extra rounds of environmental testing. As the manufacturer, we know that changing a solvent isn’t just a line on a spec sheet—it impacts storage, blending, waste treatment, and worker comfort on the floor.
Clients often want to switch away from ethylene carbonate or dimethyl carbonate, depending on their application. Compared to ethylene carbonate, Propylene Carbonate remains liquid across a wide temperature range and handles easier in automated lines. We notice that it blends seamlessly in cold shops where ethylene carbonate would otherwise solidify. As for dimethyl carbonate, the key difference involves polarity and solvency. Propylene Carbonate’s higher dielectric constant boosts its performance in battery electrolytes or polar coatings, especially when formulated at higher concentrations. These advantages become obvious when processing operators find fewer crystalline deposits in pipes or see containers empty with less residue left behind.
Consistency begins in raw material procurement. Over time, we established strong partnerships with propylene oxide suppliers to maintain feedstock quality and schedule predictability. Each delivery runs through acceptance testing before ever reaching the reactor. As a result, the process maintains controlled reactant ratios, essential for reproducible reaction yields. Years of operational feedback prompted refinements in temperature ramping and pressure stabilization, which means our finished Propylene Carbonate matches intended viscosity and volatility every run. Operators know that even a half-degree fluctuation or catalyst impurity can shift outcomes, so every anomaly receives a second look before shipment approvals.
In the product storage phase, stainless steel tanks guard against metal leaching, and regular cycle counts on filters keep particulate levels to a minimum. Finished Propylene Carbonate spends little time in warehouse storage thanks to reliable shipping logistics; fast turnover prevents any degradation or water pickup over weeks or months. For specialty uses requiring ultra-low moisture, our plant invests in nitrogen padding and advanced drying columns, driving water content below standard commodity levels. These steps sometimes go unnoticed outside the plant, but they show in customer reports when applications run smoother or downtime events become less frequent.
Manufacturing professionals see challenges the moment they arise. Odd color in a batch? A pressure blip in the reactor? Every occurrence sets off a string of checks, from in-line sensors to direct visual inspection. Over the years, resolving these issues built up the kind of practical knowledge that can’t be copied from datasheets. For example, incoming questions from established partners often relate to transitioning from legacy solvents or adjusting formulations after a regulatory change. We learned to provide technical answers based on days in the field, backed by analytical numbers. There’s a real difference between reading about incompatibility and seeing how Propylene Carbonate outperforms in an emulsion system that other solvents just destabilize.
We also respond quickly to supply chain interruptions. Unexpected shifts in global logistics can disrupt shipments, making it vital to operate with agile production schedules. Rescheduling blending, finding alternate drumming routes, or sometimes ramping up night-shift bottling — these solutions happen only because the team on the ground knows the process in and out. That awareness feeds back into risk mitigation planning; if a customer requires custom stabilizers or low-halide Propylene Carbonate, we document the adjustments, train the production line anew, and record the outcomes for future runs.
Operating as a chemical producer means staying accountable for both safety and environmental stewardship. Our facility invested in closed-system handling and vapor recovery to minimize both occupational exposure and emission into the local environment. The production process doesn’t generate large volumes of hazardous byproducts, but waste streams — including spent catalyst and off-spec material — move through approved treatment steps before disposal or recycling. Whenever possible, we devise ways to turn off-spec Propylene Carbonate into feedstock for secondary product lines or neutralize spent catalyst for concrete additives.
In practice, these measures help customers meet their own sustainability targets. Companies now need traceability for solvent origin and evidence of responsible chemical management. Offering Propylene Carbonate certified to comply with national and regional environmental standards builds trust, not just on the purchase order but at every inspection and audit. This trust pays dividends; we explain our procedures during joint quality audits, walk site visitors through storage areas, and openly share our internal safety training records. Our aim has always been to operate transparently, not because regulators ask—because it aligns with long-term business health and public responsibility.
Quality control for Propylene Carbonate is both habit and discipline. Before any shipment leaves our plant, multiple in-house labs test for purity, water content, acidity, color, and trace metals. Continuous training keeps laboratory analysts alert to evolving customer requirements, especially as industry standards in high-tech fields tighten year by year. Feedback loops between customer sites and our lab proved invaluable; if an unexpected issue shows up in a downstream adhesive batch or battery test cell, samples and analytical logs are shared immediately to track potential causes.
We encountered scenarios where matching analytical methods made all the difference. Some customers run equipment with broader detection limits or focus on different impurity thresholds. Understanding these differences enables fine-tuning of our own analysis so reported results align with user expectations. This diligence avoids disputes and keeps projects on schedule, especially in fields like electronics and industrial coatings where performance margins shrink every year. As new uses for Propylene Carbonate evolve, we regularly update our own methods — staying just ahead of changing demand curves and formulation trends.
Decades in chemical manufacturing have taught us how quickly priorities shift, especially when legislation or end-market expectations evolve. As new toxicological reviews surface and regions introduce stricter restrictions on legacy solvents, requests for Propylene Carbonate as a replacement increase. Anticipating these industry waves, we revised process controls, updated emission mitigation systems, and re-certified compliance documentation across production, distribution, and storage.
Where Propylene Carbonate moves into sectors like food packaging adhesives or medical device assembly, various regulatory thresholds apply above those set for paints or lubricants. Experience with cross-functional compliance teams has helped us adapt, supplying detailed trace test data and segregation protocols where necessary. Our commitment to uninterrupted supply stays steady even in turbulent markets. Extra on-site capacity, redundant inventories for critical reagents, and strong relationships with logistics providers make it possible for us to bridge temporary shortages or fill complex multimodal orders with little advance warning.
Long-term customers value manufacturers who solve problems, not just fulfill orders. Over time, trust builds as we jointly address challenges: odd batch reactions, integration of new machinery, the search for greener formulations. We hold regular technical meetings with partners, reviewing not only lot analytics but sharing application insights. These exchanges flow both ways — insights from field engineers working at a coating or battery plant often spark improvements in our own recipes or blending protocols.
Our role doesn’t end with delivery at a warehouse gate. During scale-up, customers often invite us to troubleshoot issues as formulation variables widen. Sometimes this means adjusting minor attributes like viscosity; other cases require fast reformulation to meet a new health and safety guideline. Our history with Propylene Carbonate has been shaped by partnerships — a lesson learned repeatedly is that open communication across technical, procurement, and safety teams benefit everyone in the supply chain.
The production of Propylene Carbonate continues to evolve. Global pushes toward lower-carbon manufacturing and safer chemical stewardship shape our next steps. We remain engaged in research trials, working with academic groups to pilot new uses in energy storage and renewable materials. Advances in synthetic lubricants, polymer processing, and agricultural solutions create new demands for enhanced grades—tighter control on soft metals, expanded purity specifications, and innovative packaging that reduces handling risk.
Practical improvements also come from inside the facility. Digital process control, advanced real-time analytics, and improved operator training keep our daily operations on track. Investment in data collection and predictive maintenance reduces unscheduled downtime and drives continuous improvement. New automation systems free team members to focus on higher-level troubleshooting and optimization, delivering value not just internally, but to every downstream application where Propylene Carbonate makes the difference.
The story of Propylene Carbonate at our plant mirrors the real-world journey of many specialty chemicals. While the industry still sees it as a niche solvent, the impact across batteries, coatings, and cleaners is broad and deep. Quality, reliability, and adaptability define the difference between commodity chemicals and well-supported specialty production. Our team stands behind every drum with an understanding that every batch has a destination with unique needs and challenges. By focusing on process rigor, supplying detailed technical support, and maintaining honest dialogue with every user, we ensure Propylene Carbonate continues to deliver results as each industry adapts and grows.