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May 29, 2026Sustainable Chemistry and Pharmacy0 citationsOpen Access

A sustainability-integrated analytical quality by design UPLC–PDA method for amoxapine determination in bulk and tablet formulations: Application to stability studies

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VLVishal D. LabhadeSNShuvam NayakBHBhakti Umesh Hirlekar

Key Points

  • This research aims to develop a sustainable and efficient analytical method for the determination of amoxapine in pharmaceutical formulations.
  • Implemented a sustainability-integrated Analytical Quality-by-Design (AQbD) framework.
  • Used a Box–Behnken response surface design for optimization.
  • Conducted forced degradation studies to confirm stability-indicating capability.
  • Achieved a 75% reduction in analysis time compared to conventional methods.
  • Demonstrated 95% reduction in solvent usage during analysis.
  • Scored 0.81 on green analytical assessment tools, indicating a significantly reduced carbon footprint of 0.0453 kg CO2 per analysis.

Abstract

Amoxapine (AMX), a tricyclic antidepressant, is widely used in the management of depression and other neuropsychiatric disorders. However, the robust, sustainable, stability-indicating, and optimised method for AMX analysis is still lacking. Existing analytical methods are often hampered by excessive solvent consumption, which is a consequence of long run times. To address these limitations, this study implemented a sustainability-integrated Analytical Quality-by-Design (AQbD) framework to develop the first rapid, stability-indicating UPLC-PDA method for the AMX. A Box–Behnken response surface design was implemented to optimize high-throughput separation on a C18 column in an ultra-short runtime. Compared with previously reported conventional HPLC methods, this approach achieved a 75% reduction in analysis time and a 95% reduction in solvent usage. The developed method demonstrated high sensitivity, robustness, and excellent resolution during stability studies. Forced degradation studies confirmed its stability-indicating capability through effective resolution and peak-purity analysis. The method was evaluated using multiple green analytical assessment tools (e.g., Analytical Eco-Scale and AGREE), yielding a superior score of 0.81 and a significantly reduced carbon footprint (0.0453 kg CO 2 per analysis). The method is suitable for routine quality control and stability monitoring, providing a robust and environmentally responsible framework for pharmaceutical analysis.

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Cite This Study

Labhade et al. (2026) studied this question.

synapsesocial.com/papers/6a192cb4fab5b468c44157a5https://doi.org/10.1016/j.scp.2026.102450
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