Noradrenaline Hydrogen Tartrate: Physical Properties and Material Insight

What is Noradrenaline Hydrogen Tartrate?

Noradrenaline hydrogen tartrate, recognized by the molecular formula C8H11NO3, is a distinct chemical compound widely used as a raw material in specialty synthetics and pharmaceutical intermediates. The structure contains an aromatic ring, ethylamine side chain, and tartrate counterion, producing a molecule that carries a noticeable crystalline nature. Looking at the material on a lab bench reveals it usually forms white or nearly off-white crystalline solid, sometimes presenting as powder or delicate flakes, depending on precise storage and handling conditions. The specific HS Code for this compound typically falls under 2934.99, linked to heterocyclic organic chemicals and their derivatives—important for tracking movement and compliance in cross-border shipping.

Physical and Chemical Properties

Solid noradrenaline hydrogen tartrate shows a stable density, around 1.4 to 1.5 g/cm3, letting chemists measure and manage solution concentrations with accuracy. Whether shaped as crystalline powder or brought into granulated pearls, its solubility in water stands out, providing almost complete dissolution when handled at room temperature. The compound resists volatile evaporation, holding a solid-state under laboratory and transport conditions. Its melting point hovers between 180-188°C, which means storage rarely requires temperature-sensitive handling unless facing direct sunlight or intense heat.

From direct lab observation, the smell is faint to neutral, which helps avoid complications from exposure, especially in settings lacking robust ventilation. Color consistency helps technicians determine compound integrity. On purity testing, reputable suppliers deliver material with minimal moisture, a crucial factor for successful synthesis where water can disrupt reaction pathways.

Properties That Matter in Application

Noradrenaline hydrogen tartrate steps into focus where controlled release and stable structure matter most—think emergency medicine and neuroscience research. I have seen how its solubility profile allows for rapid mixing in saline, leading to predictable dosing. The powder form directly permits high surface area interaction, offering flexibility in both quick solution preparation and slow-release pill design. Breaking down its structure, the dual presence of noradrenaline and tartrate ensures dual control, stabilizing the active catecholamine for safe storage Before further modification or formulation. Any deviation in density or crystal shape, learned through years of quality control, flags possible impurities, often traceable to poor handling or degraded supply chain storage.

Material Safety and Hazard Profile

The chemical falls under a category that needs careful respect. Direct contact with skin, eyes, or mucous membranes brings risk of irritation, and inhalation should be avoided—standard safety protocol means goggles, gloves, and working with proper fume extraction. Spillage typically requires damp cloth clean-up; sweeping up dry powder generates dust, which increases the risk of inhalation. Noradrenaline hydrogen tartrate, as a precursor to bioactive molecules, can pose health hazards if mishandled—nervous system side effects have been documented in cases of gross overexposure.

Proper chemical waste disposal becomes a must—local laws dictate disposal in sealed containers, never with regular trash, to avoid environmental contamination or accidental exposure. While the compound rates lower on explosiveness or acute toxicity compared to more reactive agents, vigilance is a must, especially around open flames or chemical oxidizers. Any reach into harmful potency traces back to its bioactive core, making strict handling and recordkeeping non-negotiable in regulated settings.

Raw Material Sourcing and Handling Experience

Reliable supply chains define the quality of noradrenaline hydrogen tartrate that reaches research or manufacturing staff. Time spent in procurement brings the reality of counterfeit or degraded batches; physical inspection for form, color consistency, and packaging can make the difference between failed or successful results. Trusted vendors deliver documentation outlining trace impurities and shelf life. Direct experience flagging odd-smelling or unusually clumped batches shows how even a small variation in storage can lead to costly delays or hazardous situations.

The balance between cost and purity remains a daily conversation in laboratories. High-purity batches, tracked back to reputable chemical plants, bring peace of mind and efficient workflows. The density, physical state, and crystal habit all appear on batch certificates, and a single missed detail can undermine entire research projects. Compliance with hazardous material rules and accurate labeling prevent mishaps in warehouses and secondary transport.

Potential Solutions to Handling and Application Issues

Dealing with noradrenaline hydrogen tartrate begins with improved training and strict in-lab standards for storage, handling, and accidental exposure. Facilities with regular chemical audits catch early-warning signs of contamination, such as unexpected residue or changes in powder fluidity. Automated weighing and closed transfer systems reduce dust creation and hands-on risk. My time spent reorganizing a small lab showed that simple steps—double-checking material safety data, logging out volumes, and daily review of storage—can cut down nearly all routine safety problems.

For broader issues like supply chain integrity and quality fluctuations, investment in validated supplier relationships, independent testing, and batch tracking helps maintain both safety and final product performance. I have watched research teams double their productivity once raw material issues stopped causing delays. Inline testing, validated by analytical instrumentation, leaves little room for error and speeds up identification of defective lots long before they reach the workbench.

Careful integration with digital inventory and real-time tracking can allow organizations to flag anything off-spec early and pull compromised material out of rotation. Adapting these practices not only protects safety; they improve scientific progress and resource allocation—one solid, crystal, or powder shipment at a time.