Piperazine Adipate stands as a strong example of a purposeful compound in the chemical world, often used where the action against certain parasites is required. The molecular formula C10H20N2O4 points to a structure born out of piperazine and adipic acid, bringing together a balance of utility and safety for a broad set of applications. This ingredient draws attention in the pharmaceutical realm, especially for its action in anthelmintic preparations, and also appears in some lesser-known industrial uses. The HS Code 2933599500 identifies Piperazine Adipate under the class of heterocyclic organic compounds, guiding its trade and regulation.
This material takes mostly solid form at room temperature, presenting as colorless to faintly white flakes, powder, or occasionally crystalline pearls, depending on specific preparation and storage conditions. The density usually ranges from 1.2 to 1.3 g/cm³. Its crystalline structure brings a certain degree of firmness, and those working with it recognize the layered flakes and soft powder, which handle differently from dense pellets or hard crystals. Melting begins at roughly 190°C to 200°C, a useful fact for safe processing and storage.
Piperazine Adipate carries a moderate solubility in water, which plays a key factor for anyone preparing aqueous solutions, particularly in pharmaceutical mixing and manufacturing. It can break down or degrade under prolonged exposure to high heat or strong acid. Many labs and factories benefit from its comparatively stable nature under normal storage, though attention to moisture and air-tight containers keeps performance predictable. As a raw material, its main value traces to synthesis: particularly in drug formulations, but with future synthetic routes potentially opening up for new polymer or intermediate work.
Not every batch of Piperazine Adipate looks the same. While powders make up the most familiar option—easy to measure and disperse—there are also flakes and crystalline plates, and sometimes pressed pearls designed for easier handling in bulk chemical operations. Unlike some chemicals that jump to liquid at lower temperatures, this compound’s robustness keeps it in a dry form under most worldwide climate conditions. Packing, drum sizes, and shipment take the material’s density and texture into account, ensuring it arrives ready to use and without caking that might throw off weighing and mixing.
No matter how many years pass, there’s never any excuse for carelessness around chemicals. Piperazine Adipate holds a moderate toxicity profile, requiring basic safety measures: gloves, goggles, and well-ventilated workspaces. Inhalation of dust should be avoided—this point shows up in nearly every material safety sheet for a reason. Accidental ingestion can cause digestive upset or worse, and eye contact is equally unwelcome. While not considered highly hazardous compared to industrial solvents, it still sits in the category of “better safe than sorry.” Wash hands thoroughly, keep containers sealed, and always follow spill protocols.
This compound’s story rests partly in its role as a raw material. For worm control in both human and veterinary medicine, it functions as an active ingredient, helping protect health and food safety. It also acts as a key intermediate in the synthesis of some polymers and specialty compounds. The presence of the piperazine ring and adipate group gives chemists options for further derivatization, meaning future products can branch out from the same supply. Reliable sourcing, transparent documentation, and consistent specification checks support safe and successful use, especially when end applications have tight purity needs.
Quality control for Piperazine Adipate checks moisture, assay value (usually above 98% pure for pharmaceuticals), and absence of hazardous impurities. Routine batch testing may also include melting point, pH of a 1% solution, residual solvent checks, and particle size distribution. Large-scale purchasing often focuses on certifications like GMP, and the supply chain can span several countries—knowing the HS Code, exact molecular formula, and any regulatory restrictions becomes vital for legal trade. Density, solidity, and crystal shape might seem minor, but they matter for dissolving, mixing, and creating accurate doses or formulations.
Anyone who’s handled Piperazine Adipate in the lab knows its structure makes a difference: the central piperazine ring, a six-membered chain, links to adipate through amide bonds, producing a stable salt. This structure resists easy breakdown except under serious heat or acid, but remains reactive enough to support synthesis. No surprises in terms of flammability or violent reactivity, but thorough compatibility testing supports any plan to mix it with other chemicals, especially in complex drug or polymer recipes.
Chemicals like Piperazine Adipate bridge the gap between raw ingredients and finished products. In a world ever more focused on traceability, sustainable sourcing, and safety, knowing the background of every raw material becomes key. Product makers, researchers, and even regulatory officials can work better with full transparency—knowing formula (C10H20N2O4), recognizing key properties (density, melting point, form), and understanding real-world application risks. The goal is to keep each link in the supply chain accountable, minimizing hazardous exposure and maximizing the benefits Piperazine Adipate can offer across medicine and industry.
