PI11266 Aminoacetonitrile Hydrochloride (CAS No.: 6011-14-9)

Aminoacetonitrile Hydrochloride (CAS No.: 6011-14-9) Description

Aminoacetonitrile Hydrochloride (C2H5ClN2) is a chemically defined intermediate in powder form used within pharmaceutical synthesis. Its hydrochloride structure enables controlled reactivity, supporting the conversion steps in multi-stage chemical reactions. The material is analysed using HPLC and infrared spectrometry to ensure minimal impurity levels. This detailed characterisation aids in reproducible reaction conditions and efficient process scalability.

Aminoacetonitrile Hydrochloride (CAS No.: 6011-14-9) Applications

1.         Pharmaceutical Synthesis
   - Used as a reactive intermediate in active pharmaceutical ingredient (API) production to achieve controlled reaction pathways by leveraging its well-defined chemical structure.
   - Applied as a precursor in synthesis routes to optimise chemical conversion efficiency and reduce by-product formation.

2.         Chemical Research
   - Employed as a model compound in reaction mechanism studies to examine salt-induced modifications in reactivity, thereby supporting process optimisation.
   - Utilised in laboratory settings for method development, ensuring experimental reproducibility through its consistent physicochemical properties.

Aminoacetonitrile Hydrochloride (CAS No.: 6011-14-9) Packing

The product is packed in sealed, inert plastic containers lined with moisture-barrier material to prevent contamination and degradation. Each container is labelled with batch details and storage conditions. Packaging is designed to sustain mechanical protection during transit and allows customisation options such as bulk packaging or smaller aliquots. The design ensures minimal exposure to atmospheric moisture while facilitating safe handling during storage and shipping.

Additional Information

Aminoacetonitrile Hydrochloride belongs to a class of intermediates critical to pharmaceutical synthesis, where precise chemical properties form the foundation for high-fidelity synthetic procedures. Its defined composition and salt form play a crucial role in reaction kinetics and yield optimisation. Understanding these factors is essential for developing efficient synthetic routes and ensuring process consistency in industrial applications.

In the broader context, chemical intermediates such as this compound are integral to research and development initiatives in pharmaceuticals. Continuous advances in analytical techniques enhance the ability to monitor and control product quality, ultimately contributing to improved process performance in chemical manufacturing environments.