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HS Code |
404266 |
| Chemical Name | N,N-Dimethylformamide |
| Chemical Formula | C3H7NO |
| Molecular Weight | 73.09 g/mol |
| Cas Number | 68-12-2 |
| Appearance | Colorless liquid |
| Boiling Point | 153 °C |
| Melting Point | -61 °C |
| Density | 0.944 g/cm³ at 20 °C |
| Solubility In Water | Miscible |
| Vapor Pressure | 3.7 mmHg at 20 °C |
| Flash Point | 58 °C (closed cup) |
| Odor | Faint amine-like |
As an accredited N,N-Dimethylformamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 99.9%: N,N-Dimethylformamide Purity 99.9% is used in pharmaceutical synthesis, where high purity ensures minimal impurities in active pharmaceutical ingredient production. Boiling Point 153°C: N,N-Dimethylformamide Boiling Point 153°C is used in high-temperature polymer processing, where thermal stability enables efficient reaction conditions. Viscosity 0.802 mPa·s: N,N-Dimethylformamide Viscosity 0.802 mPa·s is used in polyurethane manufacturing, where low viscosity promotes uniform polymer blending. Water Content <0.1%: N,N-Dimethylformamide Water Content <0.1% is used in lithium-ion battery electrolytes, where low water content prevents degradation of cell performance. Stability Temperature 100°C: N,N-Dimethylformamide Stability Temperature 100°C is used in textile dyeing processes, where temperature stability maintains solvent efficiency during dye application. Molecular Weight 73.09 g/mol: N,N-Dimethylformamide Molecular Weight 73.09 g/mol is used in peptide synthesis, where predictable molecular behavior ensures accurate chain elongation. Colorless Appearance: N,N-Dimethylformamide Colorless Appearance is used in adhesives formulation, where colorless nature prevents discoloration in the final product. Density 0.944 g/cm³: N,N-Dimethylformamide Density 0.944 g/cm³ is used in solvent extraction, where controlled density enables selective separation of organic compounds. |
| Packing | A 2.5-liter amber glass bottle, sealed with a plastic screw cap, labeled "N,N-Dimethylformamide, ≥99%," with hazard warnings. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for N,N-Dimethylformamide: Typically 80–160 drums (200 kg each) or 20 ISO tanks, totaling 16–20 metric tons. |
| Shipping | N,N-Dimethylformamide (DMF) is shipped in tightly sealed containers made of compatible materials such as steel or high-density polyethylene. It is classified as a flammable liquid (UN 2265), requiring proper labeling and adherence to local, national, and international transport regulations. Store away from heat, sparks, and incompatible substances. |
| Storage | N,N-Dimethylformamide (DMF) should be stored in a tightly closed container in a cool, dry, well-ventilated area, away from heat, sparks, and open flames. Keep it away from incompatible substances such as oxidizing agents, acids, and halogens. Store at room temperature and protect from moisture. Always use proper secondary containment and clearly label the storage area for safety. |
| Shelf Life | N,N-Dimethylformamide typically has a shelf life of 12–24 months when stored in tightly sealed containers away from heat, moisture, and light. |
Competitive N,N-Dimethylformamide prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615651039172 or mail to sales9@bouling-chem.com.
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N,N-Dimethylformamide, widely known as DMF, stays firmly listed among essential organic solvents for many industries we serve. Every batch leaving our plant represents a culmination of years working with chemical production equipment, raw material suppliers, and the teams responsible for logistics and quality checks. DMF’s reliable solvency, high chemical purity, and low water content keep it in demand for specialized applications. From our point of view, having control of synthesis right from the dimethylamine and carbon monoxide feedstocks to the final purification stages determines the difference between DMF that meets process-critical benchmarks and ordinary commercial solvent products.
Through hands-on years producing DMF, the subtle differences that separate technical grade from electronic grade, or that influence hydroscopic behavior in packaging, become very clear. Our process aligns with strict international and local quality assessments. These cover not just the purity, which often exceeds 99.9%, but also specific contaminants like monomethylamine or residual formic acid levels below industrial limits. Finished DMF needs to be free of by-products and metals, and we continuously run GC analysis to monitor for them, ensuring customers receive what they expect.
Standard solvents like acetone, toluene, and methanol each have roles, but few match the versatility of DMF for dissolving polymers, fibers, and certain pharma actives. Customers who manufacture polyurethane-based artificial leathers, synthetic fibers, or acrylic fibers still choose DMF due to its ability to maintain polymer chains in solution without introducing unwanted impurities. Paint and resin producers rely on DMF's strong solvency when they process specialty coatings that need uniformity and consistent boiling points. Pharmaceutical manufacturers value the consistent high purity for active pharmaceutical ingredient (API) synthesis and controlled reaction rates.
Solubility parameters matter too. DMF’s polar aprotic character supports many reactions that are less efficient or more troublesome using traditional protic solvents like alcohols or water. For instance, when working with alkali-sensitive reactions, our site chemists appreciate how DMF won't introduce proton sources that could lead to side reactions or product degradation.
Manufacturing DMF is not simply a matter of mixing chemicals and bottling the outcome. Each reactor batch involves heat and pressure management, constant monitoring for exothermic risks, and handling of off-gases through dedicated scrubbing systems. The process is sensitive to small shifts in inputs. Variances in dimethylamine or formic acid quality, for example, can spike impurity levels, calling for additional distillation runs and extra analytical checks. We do not cut corners, knowing well how minor lapses at the plant level can affect a customer’s end product or even trigger a product recall.
Our operators, engineers, and lab technicians regularly step onto the production floor, often working shoulder-to-shoulder with safety teams to review procedures. Employees receive training to recognize early warning signs of color shifts or gas emissions—a practical layer of oversight that only comes with deep operational experience. This is one factor that upholds our DMF's reputation across the specialty chemicals industry.
DMF is prized for its utility as a reaction medium and as a solvent in a number of high-end applications. On the resins and coatings side, customers who use acrylic, epoxy, or polyimide systems need a solvent that can carry high solids while maintaining manageable viscosities at application temperatures. We routinely consult with clients from the adhesives industry, who rely on DMF to manufacture polyurethane adhesives with controlled tack and open times. Its evaporation profile often allows fine-tuning of process cycles, impacting not just the end product but also the plant’s daily production output.
We support pharmaceutical, agricultural, and electronics customers, supplying DMF that enables fine-tuned catalytic hydrogenation and cross-coupling chemistry. It dissolves salts and organic compounds that barely solubilize in nearly anything else, making it a favorite in peptide synthesis or certain photolithography etching baths. No matter the field, feedback frequently revolves around the need for consistent water content and minimal by-product presence. We have invested in drying and filtration upgrades that directly target these points.
Clients making synthetic fibers, especially polyacrylonitrile for carbon fiber precursors, have strict expectations. These operators need stable, high-purity DMF to guarantee that every extrusion run delivers fibers with the same strength, diameter, and downstream behavior—a nontrivial challenge given the sensitivity of continuous spinning processes to even slight variations in solvent purity or residual moisture.
Buyers familiar with N-Methyl-2-pyrrolidone (NMP) or dimethylacetamide (DMAc) sometimes ask about switching solvents, particularly when supply challenges or regulatory developments hit the market. From a manufacturer’s viewpoint, the differences are not subtle—each solvent has distinct toxicology profiles, boiling points, and workplace exposure guidelines. In day-to-day production, DMF offers a lower viscosity than NMP, and the boiling point at around 153°C puts it in a different process window than acetone or toluene.
DMF provides higher miscibility with water and most organic solvents, meaning it behaves reliably in multistep syntheses or gradient wash protocols. Some customers experiment with NMP or DMAc for comparable solvation but find the results for certain polymers or electronic formulations aren’t always identical. We encourage side-by-side lab trials, as experience has shown that switching away from DMF might solve one regulatory issue but introduce new viscosity, drying, or formulation headaches.
We note the ongoing updates in safety classifications and regional bans for certain solvents, including DMF. The pressure from regulatory teams drives us to minimize worker exposure and enhance handling documentation. We comply with strict air monitoring, closed transfer systems, and comprehensive PPE protocols—changes that not only assure compliance but also protect the workers who run our plants and the people who use our products downstream.
Safe handling of DMF never takes a back seat here. The same properties that make DMF effective in industrial use raise legitimate concerns about air emissions, operator exposure, and water contamination. We run containment and vapor recovery systems to limit fugitive emissions and take pride in keeping exposure levels far below current regulatory limits. Frequent air and liquid monitoring gives our site operators actionable data every shift.
From material transfer to final storage, every drum, tank, or bulk container goes through leak checks and secondary containment protocols. We’ve also designed automated sampling rigs so plant workers do not need to be exposed to open solvent tanks for routine analysis. All new team members spend their first weeks learning about safe handling and emergency management—practices documented and refined after decades of operational lessons on our manufacturing floor.
Adopting green chemistry principles has moved from compliance to daily routine. When possible, we recover and recycle DMF from process streams, minimizing waste generation and disposal. Our teams review new catalyst options and process improvements regularly, often working with research chemists to find less hazardous alternatives or advanced separation technologies.
Fluctuating raw material prices, evolving regulations, and customers asking more of their solvents keep us attentive. Every year brings new requests—higher purity, lower color, less odor, specialized packaging, or documentation for specific regions. We listen, sometimes even modifying plant operations to tailor a series of production runs toward a single customer requirement that others would treat as a one-off request. These adjustments, including blending or further purification, demand experience and flexibility at both the technical and managerial level.
Supply chain disruptions often test our ability to deliver. We keep a close watch on global transportation networks and chemical feedstock markets, holding backup inventories when needed and maintaining relationships with logistics teams who know our facilities inside out. These efforts reduce the risk of delayed shipments or unexpected shortages that can ripple through a customer’s entire production line.
Our technical sales teams, all with backgrounds in chemical engineering or industrial chemistry, communicate real options to customers. Rather than selling a generic batch, we talk through solvent behaviors under specific process conditions, offering usable data from our own labs and collaborative trials. We invite client chemists to visit, witness quality control firsthand, and share insights that lead to better, safer chemical use.
Governments and international bodies intensify oversight on solvents like DMF, considering their effects on health and the environment. Our regulatory staff tracks rules not only where plants are located, but where our DMF gets shipped. This means frequent reviews of Safety Data Sheets, labeling, transportation, and documentation to ensure every consignment meets destination-specific standards. We communicate changes promptly, helping customers adapt products and operations without disrupting ongoing projects.
We participate in industry groups working toward transparent, trust-based supply chains. Sharing emission data, adopting best practices, and developing alternatives to problematic chemicals matters to our company. When new testing guidelines or purity standards appear, we invest in equipment and training to stay ahead. Input collected from our clients guides production improvements, often leading to new DMF grades or substitution advice when solvents approach regulatory limits.
Customers in electronics and semiconductors need ultrapure DMF grades for microfabrication, cleaning, or etching. For these users, even minuscule impurities can cause device failures or yield drops. We run continuous ion chromatography and trace metal checks, maintaining clean room-inspired packaging steps. Any non-conformance triggers an internal review and corrective action, upholding commitments to high-tech partners whose product lifespan and performance depend on the chemicals we deliver.
Clients in the pharmaceutical sector expect documented origin for every raw material and a clear vessel cleaning record. Each batch receives a full analytical report, including residual solvent and water levels verified by Karl Fischer titration and headspace GC testing. We field questions daily about DMF’s suitability for new-generation synthesis, acting as both supplier and technical resource for process development teams.
Polymer customers come with their own set of performance standards. Continuous fiber extrusion, membrane casting, and specialty film production all demand DMF with precise, documented properties. If viscosity or color starts to drift outside specified ranges, our process specialists walk the line, assess upstream sources, and revalidate system calibrations. Recognizing the interconnectedness of each stage from raw material handling to final shipment, we keep direct feedback loops open with heavy users.
Producing DMF responsibly in today’s environment takes more than technical ability—it requires dedication to safety, quality, and open communication. We explore alternatives to traditional processes: employing catalytic systems that improve conversion yield while generating less waste, reducing water use through advanced distillation, and enhancing recovery from spent process streams. Our site engineers work with automation and analytics companies to implement in-line real-time sensors, tightening process control and reducing both product variation and operator risk.
Disposal practices remain under scrutiny worldwide. We engage with waste management specialists to ensure all off-spec or spent DMF receives documented treatment and safe destruction. Partnerships with academic researchers and process consultants keep us at the frontier of safer, lower-impact solvent use. We view customer feedback through the lens of our own factory experience, solving problems pragmatically and sharing real-world solutions that translate into more robust operations up and down the value chain.
A rising number of applications now require greener certified solvents or a demonstrated reduction in footprint. Our sustainability programs focus on not only cutting emissions but also supporting life-cycle assessments, alternative feedstocks, and customer education around best handling. Knowledge developed through years of manufacturing informs every improvement, shaping products that fit both regulatory requirements and end-user expectations.
DMF’s enduring popularity owes much to its practical flexibility and reliability, both in our laboratory trials and on customer production lines. Questions around regulatory compliance, environmental stewardship, and workplace health have elevated expectations for both product and manufacturer. We keep pace by updating plant infrastructure, training staff, and staying tuned in to changes in the downstream markets we support.
New chemistries and manufacturing methods continue to push solvent requirements to new levels. We partner with advanced research groups, build pilot-scale trial streams, and test evolving purification and recovery technologies with an eye toward the next wave of industrial challenges. In every discussion, we draw on direct hands-on knowledge of plant operations, safety regulations, and practical performance criteria that determine success for our customers and their products.
From the earliest synthesis stages through to bulk shipment, every DMF batch embodies years of learning, process improvement, and close attention to customer and regulatory needs. Drawing on the real experience of producing, handling, and improving DMF, we continue delivering this solvent with an eye to quality, responsibility, and the actual requirements of modern industry.