N-Decyl-N-Methylpyrrolidinium Bis((Trifluoromethyl)Sulfonyl)Imide stands out as an ionic liquid valued both for its unique molecular properties and the evolving applications in science and industry. Pharmaceutical labs and advanced materials research teams handle this substance for its conductive abilities, stable behavior under a range of temperatures, and interesting solubility profile. This compound brings a level of chemical versatility that supports projects looking to push boundaries in green chemistry, energy storage, and electrochemical synthesis. The chemical formula for this material is C16H29F6N2O4S2, which translates to a structure with an alkyl pyrrolidinium ring, a methyl side chain, and a bis(trifluoromethylsulfonyl)imide anion. This specific architecture gives the molecule an overall profile conducive to ionic conductivity, low vapor pressure, and distinct hydrophobic qualities—each of which draws attention from professionals focused on high-performance chemical applications.
In my experience, handling N-Decyl-N-Methylpyrrolidinium Bis((Trifluoromethyl)Sulfonyl)Imide often means choosing from a range of forms: fine powders, solid flakes, pearls for controlled dosing, and occasionally viscous or crystalline liquids depending on moisture content and temperature. Precise density measurements help scientists calibrate for quantity and mixing, with values generally settling in the range of 1.2–1.4 g/cm³ at room temperature. The high purity levels, commonly above 98%, ensure reliability during sensitive reactions, particularly when scaling up synthesis or working in regulated environments. It’s also available in various packaging options, from laboratory vials to container-scale lots, which highlights demand across different sectors.
Calling upon countless hours spent in controlled labs, I’ve watched how the specific physical characteristics of this material shape its place in research. It holds a high boiling point, resists hydrolysis even in the presence of water, and flows as a highly stable ionic liquid at moderate temperatures. Its molecular structure leaves the surface hydrophobic—a boon when mixing with nonpolar solvents or seeking separation from aqueous phases. That low volatility proves useful for creating safe working environments, cutting down on accidental inhalation and minimizing emissions into the lab atmosphere. In addition, its good electrochemical window and thermal resilience let engineers tweak electrolytes for lithium-ion, sodium-ion, or redox flow batteries—each looking for incremental gains in performance and lifespan.
With N-Decyl-N-Methylpyrrolidinium Bis((Trifluoromethyl)Sulfonyl)Imide, every chemical handler should follow robust safety protocols. Although its low volatility minimizes the immediate risk of inhalation, incidental contact can cause skin irritation or, more rarely, respiratory issues during fine powder handling. Material Safety Data Sheets classify it as non-flammable and generally stable under recommended conditions, yet the fluorinated part of its molecule signals a need for waste collection and proper neutralization to prevent environmental accumulation. Wearing gloves, goggles, and lab coats stops contact hazards, and using sealed containment during transfers prevents dust generation. Responsible disposal is key: fluorinated sulfonyl groups don’t break down easily in nature, so waste handling facilities process it with specialized equipment to keep groundwater and air safe. The U.S. Harmonized System (HS) Code for this chemical is often 2921.19, falling under heterocyclic compounds. Knowing the legal identifiers keeps import/export and compliance straightforward—important for businesses and institutions acquiring what they need for advanced projects.
Labs and manufacturing plants use this material for transforming raw materials into finished goods that require heat and mechanical stability, like electrolytes for electrochemical cells or additive components for lubricants, where its ionic nature and lubricity offer concrete advantages. Some colleagues at battery startups share stories of improved cycle longevity and lower degradation in their systems after integrating this ionic liquid. While it opens the door for more sustainable technology pathways, access to quality raw starting materials for the pyrrolidinium ring and bis((trifluoromethyl)sulfonyl)imide anion is a bottleneck in cost and supply. Factories have increased control over process purity to avoid side reactions, and this step in the supply chain determines the safety and reliability of the end product. As chemical regulations shift in Europe, North America, and East Asia, manufacturers must stay updated on evolving packaging and shipping standards, which sometimes delay cross-border movement. Solutions to these bottlenecks come from collaborating with specialty chemical suppliers, building redundancy in sourcing, and participating in third-party audits for sustainability and safety.
Looking at the journey from raw material to finished ionic liquid, hands-on work in labs shows that attention to detail cuts down on avoidable risks and waste. Storage under inert atmosphere prevents hydrolysis, and using precision pumps stops unnecessary exposure. Training skilled handlers and keeping safety data sheets current helps organizations make smart, informed decisions about safe use and emergency response. Investing in closed systems protects both labs and production workers from known and unknown risks. As performance demands rise—whether in grid energy storage, advanced lubrication, or high-durability specialty materials—companies see the value of choosing thoroughly characterized, tightly controlled chemicals such as N-Decyl-N-Methylpyrrolidinium Bis((Trifluoromethyl)Sulfonyl)Imide. Lessons learned from years in the field come down to respect for both the innovation these compounds bring and the care needed to safeguard people and the environment.
