1-Vinyl-3-Ethylimidazolium Dicyanamide: Physical Characteristics, Structure, and Handling

What is 1-Vinyl-3-Ethylimidazolium Dicyanamide?

1-Vinyl-3-Ethylimidazolium Dicyanamide stands out among ionic liquids for its unique blend of properties and its steadily growing influence across chemical and materials research. This compound, built around a substituted imidazole core, integrates a vinyl group at the first nitrogen and an ethyl side chain at the third. It pairs with dicyanamide, a partnership that tunes both its ionic behavior and practical handling. The compound’s molecular formula, C8H11N5, tells a lot about its complexity, with a structure that doesn’t just sit inert on the shelf but rather opens the door to chemical creativity, experimental rigor, and repeated industrial value, particularly where safety and environmental tolerances keep getting tighter.

Properties and Specifications

Physical character defines how a material behaves long before it gets poured into a beaker or pipetted into a reactor. This ionic liquid will usually present in several forms: powder, crystalline solid, flakes, pearls, and sometimes a highly viscous to near-liquid state depending on the synthesis and drying steps. The density ranges from 1.06 to 1.10 grams per cubic centimeter under ambient conditions, reflecting its tight molecular packing rooted in the dicyanamide anion’s small size and significant delocalization. Color tends to be off-white to pale beige for purified grades, and if left exposed to high humidity or light, faint discoloration or clumping might occur.

Solubility is one of the most important alerts in any chemical’s safety section. This material fits easily into the world of polar solvents; it dissolves well in water and even better in organic polar solvents such as acetonitrile. That property has made it a lead candidate for various solvation and extraction techniques, including those focused on greener methodologies where traditional solvents fail to meet regulatory standards. Its ability to remain liquid over a range of temperatures further increases its value in both lab and industrial settings, as it promotes more reliable, tunable reaction environments and faster mixing at lower temperatures.

Chemical Structure and HS Code

At the core of 1-Vinyl-3-Ethylimidazolium Dicyanamide sits a five-membered aromatic ring, a recurring motif in modern chemical design thanks to the predictable stacking and ionic pairing it supports. The vinyl group does more than just hang off the side—it unlocks additional reactivity, allowing for potential polymerization or cross-linking where high-performance materials are needed. The ethyl substituent fine-tunes the melting point and boosts solubility, making this compound suitable for processes where temperature control and ease of mixing are essential.

Import and export hinge on correct documentation, and the HS Code for 1-Vinyl-3-Ethylimidazolium Dicyanamide typically falls under 2933.39. This classification supports traceability and regulatory compliance, especially when large-scale deliveries cross borders or when local authorities request clarification on hazardous chemical content.

Density, State, and Material Formats

Materials scientists and engineers deal with format choices almost every day. In practice, the chemical might arrive as a crystalline powder packaged in tightly sealed bottles, or as a storable liquid in steel drums. Batch reproducibility depends on clear attention to density and water content; strict quality control is necessary to keep the water below 1% for many advanced applications. Pulling from firsthand lab work, opening a bottle of this substance brings only a mild, sometimes slightly acrid scent, with static-charged flakes clinging to the spoon or bench. The crystalline forms are favored in synthesis for stability and ease of weighing, while the liquid formats suit continuous processing and high-throughput screening setups.

Safe Handling, Hazardous Risk, and Harmful Potential

Experience with high-purity ionic liquids has highlighted the usually moderate toxicological profile, but complacency remains dangerous. 1-Vinyl-3-Ethylimidazolium Dicyanamide does not compete with traditional alkyl imidazolium salts for acute toxicity, though it does demand proper protection against contact due to possible skin irritation and mucous membrane sensitivity. Combining this material with acids, oxidizers, or heat above its critical decomposition point can release hazardous decomposition products, including hydrogen cyanide. Chemical safety data underline the need for using gloves, goggles, and controlled ventilation.

On the transport and storage front, care pays big dividends. Moisture control is no afterthought—the highly hygroscopic nature of this powder or flake means storage in tightly sealed, low-humidity containers is non-negotiable. In poorly ventilated labs, dusting from handling can prompt irritation or allergic response over time, especially if safety guidelines get overlooked. Clear, labeled packaging plus rigorous inventory management ensures compliance with workplace and transport regulations, in line with growing global standards for hazardous goods.

Raw Material Sourcing and Sustainable Outlook

Raw materials trace back to petrochemical streams and specialty chemical vendors, though recent pushes for sustainability have encouraged renewed interest in renewable feedstocks and improved catalyst controls. Quality depends on the upstream purity of both the imidazole base and dicyanamide source. Even one step with problematic impurity raises risks for downstream processes or, worse, final product failure. Researchers see potential in circular systems that reuse or recover waste from ionic liquids, squeezing costs and environmental impact while improving the science behind material selection.

Real-World Value and the Path Forward

1-Vinyl-3-Ethylimidazolium Dicyanamide fills an important niche in modern chemistry. Its mix of reactivity, coupled with stability and manageable risk, appeals to synthetic chemists, process engineers, and even regulatory auditors. Demands for better, safer, and more versatile chemical materials keep the pressure up to verify every supply chain, document every hazard, and improve every batch. Future directions could include tighter controls on particle size distribution for better reproducibility or broader exploration of biodegradable analogs. From research lab to factory floor, this material keeps proving there’s no substitute for deep, practical chemical expertise at every step.