TY - JOUR
T1 - Extraction and Optical Analysis of the Extracellular Fluid from the Body Segments of Apis mellifera Bees
AU - Hernández, J.
AU - Mesa, F.
AU - Riveros, A.
AU - Fayad, R.
AU - Nisperuza, J.
N1 - Publisher Copyright:
© The Author(s) 2025. Published by Oxford University Press on behalf of the Society for Integrative and Comparative Biology.
PY - 2025
Y1 - 2025
N2 - This study developed and optimized a methodology based on controlled centrifugation for the segmented extraction of extracellular fluid in Apis mellifera bees. Three critical variables were analyzed: relative centrifugal force, centrifugation time, and the number of individuals processed, ensuring the reproducibility and efficiency of the procedure. The results demonstrated significant differences in the volume of fluid recovered from different body segments, with the abdomen yielding the highest volumes, followed by the thorax and the head. UV-Vis spectroscopic characterization revealed distinct optical features for the samples, identifying specific absorbance peaks unique to each segment. Furthermore, biochemical analysis using Benedict's reagent confirmed the presence of reducing sugars, with head samples displaying the most intense coloration. These findings underscore the importance of segment-specific analysis to gain deeper insights into the physiology and metabolism of bees. The proposed methodology offers a novel and robust tool for physiological, metabolic, and ecotoxicological studies, facilitating the assessment of environmental and contaminant impacts on pollinator health.
AB - This study developed and optimized a methodology based on controlled centrifugation for the segmented extraction of extracellular fluid in Apis mellifera bees. Three critical variables were analyzed: relative centrifugal force, centrifugation time, and the number of individuals processed, ensuring the reproducibility and efficiency of the procedure. The results demonstrated significant differences in the volume of fluid recovered from different body segments, with the abdomen yielding the highest volumes, followed by the thorax and the head. UV-Vis spectroscopic characterization revealed distinct optical features for the samples, identifying specific absorbance peaks unique to each segment. Furthermore, biochemical analysis using Benedict's reagent confirmed the presence of reducing sugars, with head samples displaying the most intense coloration. These findings underscore the importance of segment-specific analysis to gain deeper insights into the physiology and metabolism of bees. The proposed methodology offers a novel and robust tool for physiological, metabolic, and ecotoxicological studies, facilitating the assessment of environmental and contaminant impacts on pollinator health.
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U2 - 10.1093/iob/obaf018
DO - 10.1093/iob/obaf018
M3 - Research Article
C2 - 40438523
AN - SCOPUS:105007360631
SN - 2517-4843
VL - 7
JO - Integrative Organismal Biology
JF - Integrative Organismal Biology
IS - 1
M1 - obaf018
ER -