“…However, despite that net effects were generally negative and neutral for most response variables analyzed, in some cases temperature increase can positively affect food reserves (e.g., increase honey production, advance of honey harvest days, increase hive weight, and increase in nectar volume; Gajardo‐Rojas et al., 2022; Langowska et al., 2017; Pătruică et al., 2019; Bordier et al., 2017; Gil‐Lebrero et al., 2020), reduce diseases (e.g., reduce chalkbrood, decrease deformed wing virus, increase Varroa mite fall; Nürnberger et al., 2019; Rowland et al., 2021; Bordier et al., 2017; Hillayová et al., 2022), affect positively the gene expression (e.g., improve thermo‐tolerance of workers; Al‐Ghzawi et al., 2022), increase the mitochondrial diversity (Cánovas et al., 2014), favor the geographic distribution (Castellanos‐Potenciano et al., 2017), exert positive effect on internal temperature of brood area (Gil‐Lebrero et al., 2020) and brood viability (Cebotari et al., 2019), increase glycogen levels (Bordier et al., 2017), increase the resistance of workers (i.e., daughter of heat‐stressed queens; Al‐Ghzawi et al., 2022), reduce reproduction of some pests (e.g., A. tumida ; Noor‐ul‐Ane & Jung, 2021), affect the plant‐pollinator networks (e.g., increase density, visitation rates, interactive role; Thomson, 2016; Hung et al., 2018; Cruz et al., 2022; Jaboor et al., 2022; Alzate‐Marin et al., 2021), and can increase the critical maximum temperature (Aldea‐Sánchez et al., 2021). Instead, some studies that evaluated the decrease in temperatures suggest an increase in the presence of beneficial bacteria such as Snodgrassella alvi (Castelli et al., 2022), as well as increased levels of protein, glycogen, glycerol, vitellogenin, gene expression, thus increasing the cold tolerance of honey bees (Qin et al., 2019).…”