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HS Code |
522237 |
| Chemical Name | 1-Butyl-3-Methylimidazolium Dibutyl Phosphate |
| Cas Number | 574404-20-7 |
| Molecular Formula | C17H35N2O4P |
| Molecular Weight | 378.44 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Density | 1.05 g/cm3 |
| Melting Point | -45 °C |
| Boiling Point | Decomposes before boiling |
| Solubility In Water | Miscible |
| Purity | ≥98% |
| Smiles | CCCCN1C=NC(=C1)C[P](=O)(OCCCCC)OCCCCC |
| Storage Temperature | Room temperature |
| Refractive Index | 1.41 (at 20 °C) |
| Synonyms | BMIM Dibutyl Phosphate |
As an accredited 1-Butyl-3-Methylimidazolium Dibutyl Phosphate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The chemical is packaged in a 100g amber glass bottle with a secure screw cap, labeled with hazard, quantity, and supplier details. |
| Shipping | **Shipping for 1-Butyl-3-Methylimidazolium Dibutyl Phosphate:** This chemical is shipped in tightly sealed, chemical-resistant containers to prevent leaks and exposure. It is labeled and handled according to standard hazardous materials protocols, with temperature and moisture controls as needed. Transport complies with regulatory guidelines (DOT, IATA, IMDG) for safe handling and environmental protection. |
| Storage | **1-Butyl-3-Methylimidazolium Dibutyl Phosphate** should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from moisture and incompatible substances such as strong oxidizing agents. It should be protected from direct sunlight and sources of ignition. Proper labeling and secondary containment are recommended to prevent leaks and spills. Always follow standard chemical storage protocols. |
Applications of 1-Butyl-3-Methylimidazolium Dibutyl Phosphate in Industrial ManufacturingAs the direct manufacturer, we supply 1-Butyl-3-Methylimidazolium Dibutyl Phosphate for industrial partners integrating advanced ionic liquid technology into established processes. Focusing on sectors with proven adoption, our expertise ensures precise guidance on formulation, compliance, and application performance for high-value end products. 1. Cellulose Dissolution and Fiber RegenerationIonic liquids such as 1-Butyl-3-Methylimidazolium Dibutyl Phosphate have transformed cellulose processing by directly dissolving lignocellulosic biomass under mild conditions, eliminating hazardous solvents employed in viscose and Lyocell methods. We supply high-purity material for efficient cellulose spinning, where it acts as the solvent medium in closed-loop systems to minimize loss and facilitate recyclability, supporting producers of regenerated fibers targeting textile, hygiene, and medical applications. Industry compliance standards
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2. Extraction of Rare Earth Metals in HydrometallurgyOur material plays an active role as an extractant in liquid-liquid separation for heavy and light rare earth elements, especially in the hydrometallurgical phase, where conventional organic solvents limit selectivity or pose safety risks. Utilization provides higher partition coefficients for trivalent lanthanides, improving metal recovery yield and reducing downstream refining steps for neodymium and dysprosium used in permanent magnets and advanced electronics. Industry compliance standards
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3. Catalysis Promotion in Biodiesel TransesterificationThe use of this ionic liquid as a dual-function catalyst and phase transfer medium has gained acceptance among advanced biodiesel processors, replacing traditional alkali and acid catalysts to avoid glycerol phase emulsion, reduce soap formation, and facilitate automated separation. This enhances throughput in continuous transesterification lines and expands substrate flexibility to feedstocks with higher free fatty acid content. Industry compliance standards
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4. Lithium-Ion Battery Electrolyte Additive1-Butyl-3-Methylimidazolium Dibutyl Phosphate is employed as an electrolyte co-solvent and flame-retardant additive in lithium-ion and emerging solid-state batteries, delivering high ionic conductivity, electrochemical stability, and improved safety. Producers integrate the material when customizing electrolyte blends to reduce flammability risk and extend device operating ranges for e-mobility and grid storage solutions. Industry compliance standards
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5. Enzyme Stabilization in Industrial BiocatalysisDownstream bioproduction operators leverage this ionic liquid at selected concentrations for superior enzyme solubility, enhanced structural stability, and suppression of denaturation under high-temperature or high-shear conditions during continuous-flow catalysis. Adoption is most prevalent in the manufacturing of fine chemicals and pharmaceutical intermediates sensitive to batch-to-batch enzyme performance variability, supporting consistent yield and reproducibility. Industry compliance standards
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Working in chemical manufacturing for years, the persistent drive has always centered on tuning materials to unlock fresh advantages for our customers. Among ionic liquids, 1-butyl-3-methylimidazolium dibutyl phosphate (BMIM DBP) emerged through practical trial, not through hype, with a clear focus toward stability and utility across tough industrial environments. Instead of chasing catchphrases, we keep our eyes on how real partners—researchers, process engineers, developers—benefit when the product does what science promises, day in, day out.
As a producer, our work starts with careful raw material sourcing. The butyl and methyl imidazolium core, combined with the dibutyl phosphate anion, forms an ionic liquid capable of handling complex dissolution and extraction jobs. Being colorless and nearly odorless, the liquid fits into applications where purity must be guaranteed and where even trace contaminants spell disaster. The melting point stays comfortably below room temperature, which means operators move and handle the product without the headaches caused by temperature swings. Consistent viscosity gives engineers predictable flow, reducing the need for endless recalibration.
No two ionic liquids truly behave alike, and this one carves out a practical identity. BMIM DBP maintains chemical and thermal stability under conditions that push standard organic solvents to their limits. Persistent research and quality control ensure low moisture content and confidently controlled halide levels—details that matter most once mixing tanks run for hours and pilot lines scale up. Each batch reflects our ongoing commitment to reliable and safe handling standards. It’s less about a glossy finish and more about building dependable routines for workers and end-users.
Researchers with a keen eye for sustainable process design pick BMIM DBP for solvent extraction, cellulose processing, and as a non-volatile medium in catalysis. We’ve watched industrial teams run separations for rare earths and precious metals, leveraging the liquid’s ability to create sharp phase boundaries while leaving behind traditional hazards like flammable vapors. Phosphate-based anions resist hydrolysis far better than most simple salts. Over years of direct feedback, customers lock in the product’s role for liquid-liquid extraction, new battery electrolyte research, and as a stabilizer for specialty coatings.
One of the strengths has been simplicity in integration. Labs no longer battle unpredictable solvent behavior or scrambling to meet emission rules with each new project. Thermal stability over repeated heating cycles removes the constant concern over decomposition, vapors, or residue gumming up reactors. The easy handling at a range of temperatures, and resistance to oxidation, lets companies invest in process expansion with less worry over unplanned downtime.
Many see environmental pressure intensifying. Traditional organic solvents raise concerns with toxicity, long-term persistence, and heavy emission controls. BMIM DBP offers an ionic liquid route capable of helping customers comply with new regulatory goals and company-wide sustainability visions. By using phosphate over halide, we see lowered corrosivity and improved material compatibility, preserving both hardware and product value.
In our own line, options like hexafluorophosphate or bis(trifluoromethylsulfonyl)imide salts often feature heavier halide loads. While those choices bring particular merits—higher hydrophobicity, specialty solubility—halides can corrode stainless steel and create persistent waste. Customers uncomfortable with fluorinated chemistries have turned to BMIM DBP for its moderate solubility range and much lower environmental concern. Removal of halide-based degradation avoids frequent shutdowns for cleaning and corrosion repairs.
BMIM DBP’s phosphate backbone, versus standard tetrafluoroborate options, better maintains integrity under aqueous conditions. Water stability matters most for those running mixed-phase or water-intensive separations. Fewer byproducts, less wear on O-rings and pumps, and a cleaner lifecycle for solvents used in catalytic transformations come out as reportable benefits. End-of-life disposal brings fewer headaches since phosphate ions fit into existing inorganic streams more safely than complex halides or persistent perfluorinated anions.
Some users try imidazolium products with alkyl sulfate or alkyl sulfonate anions. While those can deliver good ionic strength, they tend to foam and tolerate narrower pH ranges. We developed BMIM DBP with the goal of striking a steady middle ground: broad solvent compatibility, minimal tendency for unwanted reactivity, and a handling profile that shaves hours off process troubleshooting. Each liter we ship is the culmination of years of iterative adjustment, learning from setbacks and customer successes alike.
Unlike traders or distributors, manufacturers shape every kilogram of product. Each batch involves more than mixing; it means hours of distillation, careful exclusion of impurities, and systematic validation before shipment. Our reactors run under tight engineering controls—temperature, agitation, vacuum—to suppress side reactions that would compromise yield and reliability. Analytical controls using NMR and ion chromatography confirm the purity, while moisture meters and conductivity checks ensure practical performance at scale.
We talk to customers worried about scale-up, so we invest in long-term consistency. They need to count on material behaving as it did for their pilot trials, not just a lucky sample sent for laboratory evaluation. Continuous improvement comes from plant-floor observations, not theories. Insights from operators change how we approach filtration, bottle design, and drum cleanliness. There’s no shortcut around diligent work, and those relationships make discovery and large-scale adoption possible.
Those in the battery sector struggle with lifetime and conductivity. BMIM DBP’s ionic conductivity combines with strong electrochemical stability to improve cycle life and efficiency for new lithium and sodium-based battery systems. While transitional solvents lose out to formation of unwanted films or drop out of solution, we’ve supplied this ionic liquid in programs where survival through thousands of charging cycles is non-negotiable. It doesn’t just survive the early tests; it maintains performance batch after batch.
In rare earth separations, companies moving away from kerosene and toxic amines need clean phase separation, high metal selectivity, and low trace carryover. The phosphate anion provides a beneficial match for extractive chemistry, lowering losses and producing higher purity concentrates. We’ve seen customers cut their number of washing cycles and operate columns for months without scaling or blocked lines. Less time spent cleaning is productivity gained elsewhere.
Academic researchers push for greener cellulose dissolution, testing new approaches to bio-based feedstock conversion and recycling. Early worries about solvent recovery and toxicity fade as BMIM DBP proves less prone to forming hazardous vapor or persistent environmental residues. These teams feed observations back to us, closing the loop between academic theory and applied science.
Chemical safety is non-negotiable. BMIM DBP requires careful handling—although it avoids flammability, robust ventilation and PPE keep both workers and pilots safe. As manufacturers, the value of safety briefings, ongoing training, and equipment upgrades cannot be overstated. Spills are rare but manageable; residues do not present the cleanup challenges of many halide-based ionic liquids. Communication with warehouse teams and logistics planners ensures that product remains stable, tamper-free, and dry, even across long transport journeys.
We work with waste disposal partners to track the fate of spent product and encourage users to explore solvent recovery. Co-processing with inorganic phosphate feeds fits neatly into many industrial cycles, which gives our product another edge over conventional solvents that build up unwanted organic impurities.
Making better ionic liquids is less about advertising and more about honesty, willingness to listen, and unapologetic attention to feedback. Regular site visits, partnerships with downstream users, and targeted improvement programs funnel real-world lessons back into the plant. Each time a customer identifies a slow filter, clouding during dilution, or trouble with blending, we return to the lab and fix the root cause. If a reactor needs a retrofitted seal to handle new corrosivity insights, it gets done. That approach defines our culture.
Information isn’t withheld. Technical support works alongside R&D to deliver product profiles, MSDS access, and one-on-one troubleshooting from purchase through use and, ultimately, to responsible disposal. It’s rare for a product to be universally ideal, so each batch’s small improvements build trust for the long term. Our record reflects fewer rejected shipments and faster complaint resolutions compared to industry averages.
BMIM DBP underpins progress in solvent-intensive workstreams, specialty coatings, and new forms of electrochemical storage. Researchers trying to push the envelope on circular economy processes or biorefinery scale-ups find in this liquid a practical partner. Unlike formulas with legacy risks—halides, highly toxic surfactants, or troublesome volatility—BMIM DBP fits new company mandates and societal expectations. Transitioning from basic research to production means skipping fewer steps, avoiding regulatory pitfalls, and ensuring that cutting-edge findings reach production floors without costly redesign.
As industries pivot toward responsible chemistry, BMIM DBP paves a corridor between proven industrial know-how and new regulatory ambitions. It earns its keep by behaving as promised, with direct evidence earned on the plant floor and in research labs worldwide. Whether supporting academic proof-of-concept experiments or large-scale production runs, it’s a product built from the ground up for next-generation challenges—not just recycled language or borrowed guarantees.
For every barrel and drum shipped, we understand our responsibility reaches past compliance. The right ionic liquid spares users expensive surprises, lost production time, or costly product rejection. Direct conversations and ongoing site support mean more than an anonymous invoice. Each time a plant manager calls with a technical question, we document and respond, keeping our process transparent.
We see the journey of BMIM DBP not as a sales arc but as a sequence of challenges met: stable phase separations at full scale, safe transitions toward greener process designs, and fewer headaches for maintenance teams. The investment in customized logistics, safe packaging, and rapid delivery translates to confidence—customers know what arrives in their facility matches documentation, batch after batch.
BMIM DBP’s identity grows with each application, each user, and every lesson brought back to the plant. The story is less about superlatives and more about purposeful chemical engineering meeting real-world demands. Focusing on chemical integrity, handling safety, and performance for the long term, our approach reflects the shared work of scientists, process engineers, and field support teams.
Those considering BMIM DBP, whether approaching billion-dollar process expansions or new research frontiers, see only the surface of years of steady development and hands-on learning. We built this product because industry growth depends on innovation matched by reliability. Our work as the manufacturer touches every batch, every improvement, and every claim made. As markets move, BMIM DBP remains a solution that grows not only through science, but through experience earned on the manufacturing floor.