Bioscience Methods 2026, Vol.17, No.2, 82-94 http://bioscipublisher.com/index.php/bm 92 show that honey and other bee products are sensitive bioindicators, linking product quality directly to ecosystem status and human practices. Management and technology are equally central. Syntheses of best beekeeping practices demonstrate that hive management, Varroa control strategies, and biosecurity programs are key drivers of colony survival, productivity, and the production of residue-safe, high-quality honey. Parallel reviews of analytical methods highlight rapid advances in authenticity and quality assessment, including NIR spectroscopy, chemometrics, and metabolomics, which can classify floral and geographical origin and detect adulteration or contamination with increasing precision. Together, these findings show that both good environmental stewardship and evidence-based technical tools are needed to secure honey purity and excellence. Improving honey quality requires systematic reduction of environmental stressors around apiaries. Reviews on pollution and contaminants recommend limiting pesticide and antibiotic use, enforcing maximum residue limits, and monitoring heavy metals, PAHs, and other xenobiotics that can accumulate in honey and compromise safety. Because bees and honey effectively mirror local contamination, integrating honey-based biomonitoring into regional environmental surveillance can both protect pollinators and provide early warning of risks to food quality. At landscape scale, strengthening floral resources and habitat quality is crucial. Reviews of beekeeping constraints and “good apiculture practices” emphasize preventing deforestation of nectar plants, diversifying forage, and aligning farming systems with ecologically sound practices to sustain strong colonies and high-value honeys. Urban and anthropized-area studies further suggest that thoughtful urban greening, reduced air pollution, and control of microplastics and other emerging contaminants will be increasingly important where urban honey production grows. Coordinated policies that couple habitat conservation with pollutant reduction therefore represent a primary environmental lever for improving honey quality. Several research frontiers are emerging around measurement, contamination, and management optimization. Methodological reviews point to rapid development of NIR spectroscopy, electronic tongues/noses, metabolomics, and DNA-based tools as fast, non-destructive approaches for quality grading, authenticity, and origin tracing, with likely expansion into portable, in-field devices. Parallel work on authenticity stresses the need for integrated workflows that combine advanced extraction, hyphenated chromatography-mass spectrometry, and chemometric models to detect increasingly sophisticated adulteration and to support robust regulatory supervision. On the stressor side, new syntheses underline rising concerns about contaminant “cocktails” and novel pollutants such as microplastics, calling for multi-residue analytical methods and updated legislation that reflect real exposure patterns in honey and bees. Beekeeping-management research is moving toward quantitative indices and scenario-based frameworks that link specific practice packages to colony health and product quality at regional scales, supporting evidence-based extension and policy. Future work integrating environmental monitoring, advanced analytics, and standardized management metrics will be essential to protect pollinators while ensuring high-quality, traceable honey in increasingly complex production environments. References Akbari E., Baigbabaei A., and Shahidi M., 2020, Determination of the floral origin of honey based on its phenolic profile and physicochemical properties coupled with chemometrics, International Journal of Food Properties, 23: 506-519. https://doi.org/10.1080/10942912.2020.1740249 AlAerjani W., and Mohammed M., 2024, Impact of floral and geographical origins on honey quality parameters in Saudi Arabian regions, Scientific Reports, 14: Article 59359. https://doi.org/10.1038/s41598-024-59359-y Al-Rubaie W., 2022, The influence of storage conditions and heating on diastase, invertase activity and hydroxymethylfurfural in Iraqi honey, Muthanna Journal for Agricultural Sciences, 9(2): 32. https://doi.org/10.52113/mjas04/9.2/32 Awolu O., Ikumawoyi S., Aluko B., Lawal O., and Fagbemi T., 2025, Impact of geographical variations on the physicochemical properties, antioxidant activities and viscosity of honey from Nigeria, IPS Journal of Nutrition and Food Science, 4(1): 70. https://doi.org/10.54117/ijnfs.v4i1.70
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