TY - JOUR
T1 - Analysis of the greenness to determine risperidone in commercial products using a green stability-indicating HPTLC method
AU - Alam, Prawez
AU - Shakeel, Faiyaz
AU - Alshehri, Sultan
AU - Alhaiti, Ali
AU - Alqarni, Mohammed H.
AU - Foudah, Ahmed I.
AU - Aljarba, Tariq M.
N1 - Publisher Copyright:
© 2024 The Author(s)
PY - 2024/4
Y1 - 2024/4
N2 - The purpose of this work was to develop and verify a green stability-indicating “high-performance thin-layer chromatographic (HPTLC)” technique to measure risperidone (RISP). The ternary mixture of ethanol, ethyl acetate, and ammonia (70:20:10 v/v/v) was the green mobile phase that was employed. At 281 nm, the detection of RISP was performed. The suggested method's greener profile was produced using the analytical eco-scale (AES), ChlorTox, and analytical GREENness (AGREE) methodologies. It was then contrasted with RISP analysis published HPTLC methods. The proposed methodology for measuring RISP in the 50–1400 ng/band range showed the linearity. Furthermore, the RISP measurement methodology was green, robust, precise (% RSD = 0.80–1.02), sensitive (LOD = 1.86 ng/band and LOQ = 5.60 ng/band), and accurate (% recoveries = 98.23–101.80). The AES, total ChlorTox, and AGREE scales for the suggested technique were found to be 83, 1.26 g, and 0.75, indicating an excellent greener profile. The current methodology's AES and total ChlorTox were significantly higher than those of previously published HPTLC RISP analysis methods. RISP was found to be highly stable under acid, base, and thermal stress conditions, while it was found to be most unstable under oxidative degradation conditions. Additionally, the stability-indicating aspect of the suggested technique was able to identify RISP in the presence of its degradation products. It was discovered that commercial tablet brands A and B had 98.12 and 99.62 % of RISP, respectively. The results of this investigation suggested that RISP in commercial formulations might be regularly analyzed utilizing the suggested green technology.
AB - The purpose of this work was to develop and verify a green stability-indicating “high-performance thin-layer chromatographic (HPTLC)” technique to measure risperidone (RISP). The ternary mixture of ethanol, ethyl acetate, and ammonia (70:20:10 v/v/v) was the green mobile phase that was employed. At 281 nm, the detection of RISP was performed. The suggested method's greener profile was produced using the analytical eco-scale (AES), ChlorTox, and analytical GREENness (AGREE) methodologies. It was then contrasted with RISP analysis published HPTLC methods. The proposed methodology for measuring RISP in the 50–1400 ng/band range showed the linearity. Furthermore, the RISP measurement methodology was green, robust, precise (% RSD = 0.80–1.02), sensitive (LOD = 1.86 ng/band and LOQ = 5.60 ng/band), and accurate (% recoveries = 98.23–101.80). The AES, total ChlorTox, and AGREE scales for the suggested technique were found to be 83, 1.26 g, and 0.75, indicating an excellent greener profile. The current methodology's AES and total ChlorTox were significantly higher than those of previously published HPTLC RISP analysis methods. RISP was found to be highly stable under acid, base, and thermal stress conditions, while it was found to be most unstable under oxidative degradation conditions. Additionally, the stability-indicating aspect of the suggested technique was able to identify RISP in the presence of its degradation products. It was discovered that commercial tablet brands A and B had 98.12 and 99.62 % of RISP, respectively. The results of this investigation suggested that RISP in commercial formulations might be regularly analyzed utilizing the suggested green technology.
KW - Green HPTLC
KW - Greenness tools
KW - Risperidone
KW - Stability-indicating method
UR - https://www.scopus.com/pages/publications/85186586358
U2 - 10.1016/j.arabjc.2024.105693
DO - 10.1016/j.arabjc.2024.105693
M3 - Article
AN - SCOPUS:85186586358
SN - 1878-5352
VL - 17
JO - Arabian Journal of Chemistry
JF - Arabian Journal of Chemistry
IS - 4
M1 - 105693
ER -