Javascript must be enabled to continue!
How and why do bees buzz? Implications for buzz pollination
View through CrossRef
Abstract
Buzz pollination encompasses the evolutionary convergence of specialized floral morphologies and pollinator behaviour in which bees use vibrations (floral buzzes) to remove pollen. Floral buzzes are one of several types of vibrations produced by bees using their thoracic muscles. Here I review how bees can produce these different types of vibrations and discuss the implications of this mechanistic understanding for buzz pollination. I propose that bee buzzes can be categorized according to their mode of production and deployment into: (i) thermogenic, which generate heat with little mechanical vibration; (ii) flight buzzes which, combined with wing deployment and thoracic vibration, power flight; and (iii) non-flight buzzes in which the thorax vibrates but the wings remain mostly folded, and include floral, defence, mating, communication, and nest-building buzzes. I hypothesize that the characteristics of non-flight buzzes, including floral buzzes, can be modulated by bees via modification of the biomechanical properties of the thorax through activity of auxiliary muscles, changing the rate of activation of the indirect flight muscles, and modifying flower handling behaviours. Thus, bees should be able to fine-tune mechanical properties of their floral vibrations, including frequency and amplitude, depending on flower characteristics and pollen availability to optimize energy use and pollen collection.
Title: How and why do bees buzz? Implications for buzz pollination
Description:
Abstract
Buzz pollination encompasses the evolutionary convergence of specialized floral morphologies and pollinator behaviour in which bees use vibrations (floral buzzes) to remove pollen.
Floral buzzes are one of several types of vibrations produced by bees using their thoracic muscles.
Here I review how bees can produce these different types of vibrations and discuss the implications of this mechanistic understanding for buzz pollination.
I propose that bee buzzes can be categorized according to their mode of production and deployment into: (i) thermogenic, which generate heat with little mechanical vibration; (ii) flight buzzes which, combined with wing deployment and thoracic vibration, power flight; and (iii) non-flight buzzes in which the thorax vibrates but the wings remain mostly folded, and include floral, defence, mating, communication, and nest-building buzzes.
I hypothesize that the characteristics of non-flight buzzes, including floral buzzes, can be modulated by bees via modification of the biomechanical properties of the thorax through activity of auxiliary muscles, changing the rate of activation of the indirect flight muscles, and modifying flower handling behaviours.
Thus, bees should be able to fine-tune mechanical properties of their floral vibrations, including frequency and amplitude, depending on flower characteristics and pollen availability to optimize energy use and pollen collection.
Related Results
Red mason bees cannot compete with honey bees for floral resources in a cage experiment
Red mason bees cannot compete with honey bees for floral resources in a cage experiment
AbstractIntensive beekeeping to mitigate crop pollination deficits and habitat loss may cause interspecific competition between bees. Studies show negative correlations between flo...
Pollination ecology of Brownlowia tersa (Malvaceae), a Near Threatened non-viviparous true mangrove shrub
Pollination ecology of Brownlowia tersa (Malvaceae), a Near Threatened non-viviparous true mangrove shrub
Brownlowia tersa is a low-ground semi-evergreen shrub species. The phenological events occur sequentially—leaf fall, leaf flushing, flowering and fruiting from April to November. ...
Tomato (Solanum lycopersicum) specialized pollination is isolated from neighboring plants and pollinators
Tomato (Solanum lycopersicum) specialized pollination is isolated from neighboring plants and pollinators
Tomato is one of the crops that require buzz pollination, for which a pollinator vibrates the tubular anthers for pollen to be released. This process is efficiently carried out by ...
Productivity and commercial classification of pitaya in orchard with pollination
Productivity and commercial classification of pitaya in orchard with pollination
Information related to the productivity and classification of pitaya allows the assessment of the need and planning of orchard pollination. The objective of this study was to evalu...
Pollination Parameter Optimization and Field Verification of UAV-Based Pollination of ‘Kuerle Xiangli’
Pollination Parameter Optimization and Field Verification of UAV-Based Pollination of ‘Kuerle Xiangli’
In this study, we investigated unmanned aerial vehicle (UAV) pollination of ‘Kuerle Xiangli’, and screened the pollination operation parameters to determine the precise parameters ...
The contribution of the BIOTA/FAPESP Program to the knowledge on pollination and plant reproduction
The contribution of the BIOTA/FAPESP Program to the knowledge on pollination and plant reproduction
Abstract Interactions between plant and pollinators are associated with the origin and maintenance of species diversity, as well as ecosystem functioning. The potential of pollinat...
Spatiotemporal Variation in Pollination Deficits in an Insect-Pollinated Dioecious Crop
Spatiotemporal Variation in Pollination Deficits in an Insect-Pollinated Dioecious Crop
Inadequate quantity and quality of pollen reaching the stigmas decreases the sexual reproductive output of plants, compromising yield. Still, the current extent of pollen limitatio...
Honey bees rob flowers after observing conspecifics and carpenter bees
Honey bees rob flowers after observing conspecifics and carpenter bees
Abstract
Individuals may add to their behavioural repertoire by observing conspecifics, and possibly heterospecifics. Here we test Darwin’s intriguing hypothesis that honey...

