Isopropylamine MIPA, known in the chemical landscape for its versatility, carries a molecular formula of C3H9N. Its structure forms with an isopropyl group attached to an amino group, shaping a molecule that plays a role in various chemical processes. The compound appears in liquid form under normal conditions, carrying a colorless or slightly yellow tint. Looking deeper, density ranges near 0.69 g/cm³ at 20°C. Its formula hints at a base that can either function as a raw material or as an intermediate in more complex syntheses. Isopropylamine MIPA sits under HS Code 2921.19, which covers acyclic amines and derivatives, matching its use in several commercial sectors.
In labs and warehouses, Isopropylamine MIPA often arrives as a clear liquid, but under certain temperatures, solid forms or flakes can appear. It boils around 32°C, which means it evaporates at room temperature, giving off a characteristic ammonia-like odor. The low boiling point requires special handling in ventilated spaces. Reactions with air and water render it volatile, so people rely on secure containers built for reactive chemicals. In solid or pearl states, it sometimes comes as a white crystalline substance, keeping its molecular structure intact until heated. For those regularly working with chemical solutions, the substance dissolves easily in water, creating a basic, clear solution. That quality supports its use in dyes, pesticides, and some pharmaceutical processes.
The molecular weight of Isopropylamine MIPA stands at 59.11 g/mol. Its property as a primary amine gives it a high level of reactivity, especially with acids. Chemists use this property to create a range of derivatives or to neutralize certain acidic compounds in industrial reactions. Although most people encounter it as a liquid packaged in drums, solid forms support storage in places that need greater shelf stability or precise measurement. When weighed per liter, the liquid sees rapid vaporization, reinforcing the need for airtight storage solutions. In manufacturing spaces, the appearance of powder or pearl MIPA means someone is likely modifying a process for higher purity or reactivity. This adaptability speaks to how Isopropylamine MIPA can bridge the gap between small-scale lab reactions and high-volume industrial requirements.
Handling Isopropylamine MIPA brings safety challenges that should never be ignored, based on its potent, corrosive nature. Its volatility makes inhalation a serious risk, especially in poorly ventilated areas. Direct skin or eye contact quickly leads to burns or irritation, emphasizing the need for gloves, goggles, and protective gear. Storage next to other chemicals can turn dangerous—this substance can react violently with oxidizers, acids, or even water if precautions slip. Facilities must label drums and storage tanks clearly, keeping an accessible material safety data sheet nearby. Emergency procedures cover spills and exposures, making sure teams are ready to respond. As regulations grow more strict, manufacturers and shippers maintain updated hazard and safety data, supporting workplace and environmental protections. Toxicity concerns drive calls for safer alternatives, but this chemical, for now, remains a staple in several high-demand sectors.
People see Isopropylamine MIPA as a backbone chemical in agriculture, pharmaceuticals, and water treatment products. Its strong reactivity makes it a choice for synthesizing herbicides, especially glyphosate, as well as different surfactants and corrosion inhibitors. In medicine, its presence as a reagent speeds up various drug manufacturing recipes, where other amines might stumble due to their lower reactivity or higher cost. Manufacturers, both in Asia and globally, count on a reliable supply chain of this raw material to keep costs down and processes moving. Despite its utility, its hazardous profile means every sector using it must commit to responsible stewardship, implementing thorough risk assessment and mitigation strategies. Solutions for reducing environmental footprint focus on better capture and containment systems, as well as continuing development for safer, greener alternatives without sacrificing performance.
