人造蜂巢是天然蜜蜂巢穴(Apis mellifera)的有效热替代物吗?

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS
Derek Morville Mitchell
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引用次数: 0

摘要

蜜蜂喜欢占据厚壁、高窄的树洞,并将蜂巢直接固定在巢壁上,定期留出缝隙。然而,学术研究和蜜蜂饲养都是在蹲式薄壁人造蜂巢中进行的,蜂巢与巢壁和巢顶之间留有连续的间隙。这项研究利用计算流体动力学(CFD)模型,对蜜蜂在树上的完整巢穴和人造薄壁蜂巢中的体温调节进行了研究,并根据蜜蜂占据的合成树巢确定了树上蜂巢间隙的平均大小,比较了蜂巢间隙和体温调节育雏区垂直移动对新陈代谢能量的影响。结果表明,它们的热传导机制是不同的,包括:蜂巢上方的蜜蜂空间会增加热量损失达 70%;与树巢相比,蜂巢需要至少 150% 的蜜蜂密度才能阻止整个育雏区的对流。树洞的垂直自由度更大,热阻更大,可以使密集的蜂群变得多余。由于热环境对蜜蜂至关重要,这些差异的程度和范围表明,一些基于蜂巢的行为研究需要额外的验证才能被认为是非人类活动,而一些蜜蜂饲养方法是次优的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Are man-made hives valid thermal surrogates for natural honey bee nests (Apis mellifera)?

Honey bees preferentially occupy thick walled tall narrow tree cavities and attach their combs directly to the nest wall, leaving periodic gaps. However, academic research and beekeeping are conducted in squat, thin walled man made hives, with a continuous gap between the combs and the walls and roof. Utilising a computational fluid dynamics (CFD) model of thermoregulating bees in complete nests in trees and thin walled man made hives, with the average size of tree comb gaps determined from honey bee occupied synthetic tree nests, this research compared the metabolic energy impacts of comb gaps and vertical movement of the thermoregulated brood area. This shows their heat transfer regimes are disparate, including: bee space above combs increases heat loss by up to ∼70%; hives, compared to tree nests, require at least 150% the density of honey bees to arrest convection across the brood area. Tree cavities have a larger vertical freedom, a greater thermal resistance and can make dense clustering redundant. With the thermal environment being critical to honey bees, the magnitude and scope of these differences suggest that some hive based behavioural research needs extra validation to be considered non-anthropogenic, and some bee keeping practices are sub-optimal.

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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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