scholarly journals Florida Beekeeping Management Calendar

EDIS ◽  
2018 ◽  
Vol 2018 (4) ◽  
Author(s):  
James D. Ellis ◽  
Mary C. Bammer ◽  
William H. Kern Jr.

Climate, plant communities, and timing of floral resources differ significantly across Florida, which means that management of European honey bee colonies in Florida differs as well. This 8-page fact sheet written by James D. Ellis, Mary C. Bammer, and William H. Kern and published by Department of Entomology and Nematology outlines a management calendar created for Florida beekeepers. It is specific to region (north, central, and south Florida) and month and includes recommendations for major management considerations like when to treat for parasites or pathogens and when to feed colonies or harvest honey. This management calendar, while not exhaustive, is a valuable reference or starting point for honey bee colony management in Florida. http://edis.ifas.ufl.edu/in848

Diversity ◽  
2020 ◽  
Vol 12 (10) ◽  
pp. 403
Author(s):  
Aleš Gregorc

In recent decades, independent national and international research programs have revealed possible reasons for the death of managed honey bee colonies worldwide. Such losses are not due to a single factor, but instead are due to highly complex interactions between various internal and external influences, including pests, pathogens, honey bee stock diversity, and environmental change. Reduced honey bee vitality and nutrition, exposure to agrochemicals, and quality of colony management contribute to reduced colony survival in beekeeping operations. Our Special Issue (SI) on ‘’Monitoring of Honey Bee Colony Losses’’ aims to address specific challenges facing honey bee researchers and beekeepers. This SI includes four reviews, with one being a meta-analysis that identifies gaps in the current and future directions for research into honey bee colonies mortalities. Other review articles include studies regarding the impact of numerous factors on honey bee mortality, including external abiotic factors (e.g., winter conditions and colony management) as well as biotic factors such as attacks by Vespa velutina and Varroa destructor.


2020 ◽  
Vol 12 (21) ◽  
pp. 9258 ◽  
Author(s):  
Monica Vercelli ◽  
Luca Croce ◽  
Teresina Mancuso

For beekeepers, the beehive stock represents a fundamental means of ensuring the continuity of their activity, whether they are professionals or hobbyists. The evaluation of this asset for economic purposes requires knowledge of the rhythms and adaptations of honey bee colonies during the annual seasons. As in any breeding activity, it is necessary to establish the numerical and economic size of the species bred. Beekeepers are interested in this evaluation to monitor beehive stock. For keeping economic accounts of stock, a specific tool has been developed and proposed, here called the “Honey Bee Colony Inventory (HBCI)”. The HBCI can be used as either a final or preventive scheme to assess the numbers of honey bee colonies and nuclei, and the mortality rate, in order to calculate the monetary value. This tool allows the strength of honey bee colony stocks to be monitored, including fluctuations throughout the year, and will prove useful for determining solutions to maintain or increase how long stocks last. Data can be registered in countries such as Italy where the veterinary authorities request data on the stock owned and its variations. Due to widespread Varroa mite infestations, in recent years, beekeepers have experimented with a range of different biotechniques that have included queen caging as well as drone and total brood removal. To verify its effectiveness for gathering honey bee colony data, the HBCI was used in nine beekeeping farms applying different biotechniques to control Varroa mites: chemical treatment, total brood removal, queen caging and old queen replacement by royal cell insertion. The results are compared and discussed. Out of the nine farms, seven showed negative monetary value according to the HBCI, as expected, due to multiple factors such as the unfavorable climate trend of 2017 in the studied area. The positive aspect is that the application of this tool will allow farmers to monitor, manage and maintain their beehive stocks.


EDIS ◽  
2018 ◽  
Vol 2018 (6) ◽  
Author(s):  
Mary Christine Bammer ◽  
William H. Kern ◽  
Jamie D. Ellis

Several factors influence the flora throughout Florida, including annual freezes, average temperature, annual rainfall, and soil composition. Because of these variations, plants that grow well in one region may not grow well in another. Climate, plant communities, and timing of floral resources differ significantly between the three main regions in Florida: North Florida, Central Florida, and South Florida. While many plants are acceptable pollen producers for honey bees, fewer yield enough nectar to produce a surplus honey crop. As such, the tables in this document list the nectar-bearing plants that are present to some degree in each region and the plants' respective bloom times.


2019 ◽  
Author(s):  
Lise Ropars ◽  
Isabelle Dajoz ◽  
Colin Fontaine ◽  
Audrey Muratet ◽  
Benoît Geslin

AbstractAs pollinator decline is increasingly reported in natural and agricultural environments, cities are perceived as shelters for pollinators because of low pesticide exposure and high floral diversity throughout the year. This has led to the development of environmental policies supporting pollinators in urban areas. However, policies are often restricted to the promotion of honey bee colony installations, which resulted in a strong increase in apiary numbers in cities. Recently, competition for floral resources between wild pollinators and honey bees has been highlighted in semi-natural contexts, but whether urban beekeeping could impact wild pollinators remains unknown. Here, we show that in the city of Paris (France), wild pollinator visitation rates is negatively correlated to honey bee colony densities present in the surrounding (500m – slope = −0.614; p = 0.001 – and 1000m – slope = −0.489; p = 0.005). More particularly, large solitary bees and beetles were significantly affected at 500m (respectively slope = −0.425, p = 0.007 and slope = - 0.671, p = 0.002) and bumblebees were significantly affected at 1000m (slope = - 0.451, p = 0.012). Further, lower interaction evenness in plant-pollinator networks was observed with honey bee colony densities within 1000 meter buffers (slope = −0.487, p = 0.008). Finally, honey bees tended to focus their foraging activity on managed rather than spontaneous plant species (student t-test, p = 0.001) whereas wild pollinators equally visited managed and spontaneous species. We advocate responsible practices mitigating the introduction of high density of hives in urban environments. Future studies are needed to deepen our knowledge about the potential negative interactions between wild and domesticated pollinators.


2016 ◽  
Vol 85 (3) ◽  
pp. 255-260
Author(s):  
Ivana Papežíková ◽  
Miroslava Palíková ◽  
Stanislav Navrátil ◽  
Radka Heumannová ◽  
Michael Fronc

Oxalic acid is one of the organic acids used for controlling Varroa destructor, a mite parasitizing the honey bee (Apis mellifera). The aim of this work was to examine the effect of oxalic acid applied by sublimation on honey bee colony fitness, and to compare it with the effect of amitraz, a routinely used synthetic acaricide. Bee colonies of equal strength were randomly divided into two groups. In December 2014, one group was treated with amitraz in the form of aerosol, and the second group was treated with oxalic acid applied by sublimation. The colonies were monitored over winter. Dead bees found at the bottom of the hive were counted regularly and examined microscopically for infection with Nosema sp. (Microsporidia). At the end of March 2015, living foragers from each hive were sampled and individually examined for Nosema sp. infection. Colony strength was evaluated at the beginning of April. No adverse effect of oxalic acid on colony strength was observed despite the fact that the total number of dead bees was non-significantly higher in the oxalic acid-treated group. Examination of dead bees for Nosema infection did not reveal significant differences in spore numbers between the experimental groups. There was a substantial difference in living individuals, however, with a significantly higher amount of spores per bee found in the amitraz-treated colonies compared to the oxalic acid-treated colonies. Compared to amitraz, oxalic acid applied by sublimation showed no adverse effects on bee colony fitness or on successful overwintering.


2020 ◽  
Vol 7 (4) ◽  
pp. 166 ◽  
Author(s):  
Peter Hristov ◽  
Rositsa Shumkova ◽  
Nadezhda Palova ◽  
Boyko Neov

The Western honey bee (Apis mellifera L., Hymenoptera: Apidae) is a species of crucial economic, agricultural and environmental importance. In the last ten years, some regions of the world have suffered from a significant reduction of honey bee colonies. In fact, honey bee losses are not an unusual phenomenon, but in many countries worldwide there has been a notable decrease in honey bee colonies. The cases in the USA, in many European countries, and in the Middle East have received considerable attention, mostly due to the absence of an easily identifiable cause. It has been difficult to determine the main factors leading to colony losses because of honey bees’ diverse social behavior. Moreover, in their daily routine, they make contact with many agents of the environment and are exposed to a plethora of human activities and their consequences. Nevertheless, various factors have been considered to be contributing to honey bee losses, and recent investigations have established some of the most important ones, in particular, pests and diseases, bee management, including bee keeping practices and breeding, the change in climatic conditions, agricultural practices, and the use of pesticides. The global picture highlights the ectoparasitic mite Varroa destructor as a major factor in colony loss. Last but not least, microsporidian parasites, mainly Nosema ceranae, also contribute to the problem. Thus, it is obvious that there are many factors affecting honey bee colony losses globally. Increased monitoring and scientific research should throw new light on the factors involved in recent honey bee colony losses. The present review focuses on the main factors which have been found to have an impact on the increase in honey bee colony losses.


Sensors ◽  
2021 ◽  
Vol 21 (11) ◽  
pp. 3900
Author(s):  
Thi-Nha Ngo ◽  
Dan Jeric Arcega Rustia ◽  
En-Cheng Yang ◽  
Ta-Te Lin

The population loss rate of a honey bee colony is a critical index to verify its health condition. Forecasting models for the population loss rate of a honey bee colony can be an essential tool in honey bee health management and pave away to early warning methods in the understanding of potential abnormalities affecting a honey bee colony. This work presents a forecasting and early warning algorithm for the population daily loss rate of honey bee colonies and determining warning levels based on the predictions. Honey bee colony population daily loss rate data were obtained through embedded image systems to automatically monitor in real-time the in-and-out activity of honey bees at hive entrances. A forecasting model was trained based on temporal convolutional neural networks (TCN) to predict the following day’s population loss rate. The forecasting model was optimized by conducting feature importance analysis, feature selection, and hyperparameter optimization. A warning level determination method using an isolation forest algorithm was applied to classify the population daily loss rate as normal or abnormal. The integrated algorithm was tested on two population loss rate datasets collected from multiple honey bee colonies in a honey bee farm. The test results show that the forecasting model can achieve a weighted mean average percentage error (WMAPE) of 17.1 ± 1.6%, while the warning level determination method reached 90.0 ± 8.5% accuracy. The forecasting model developed through this study can be used to facilitate efficient management of honey bee colonies and prevent colony collapse.


2012 ◽  
Vol 56 (2) ◽  
pp. 71-81 ◽  
Author(s):  
Khem Raj Neupane ◽  
Jerzy Woyke ◽  
Jerzy Wilde

Abstract A study was carried out to investigate the effect of the original strengths of honey bee colonies supered in different ways, on the production of honey by Apis mellifera bees in the Terai region of Nepal. Bee colonies of three different original strengths, in which the bees covered 5, 10 and 20 combs, were supered in three different methods. The results showed that honey production was highly correlated to the number of worker brood cells in the colonies (r = 0.96, p = 0.003). Colonies of 5 comb initial strength (CIS), as farmers’ practices in Nepal, produced the lowest amount of honey (30.1 kg per annum). Bees in colonies of 10 CIS with a deep super, produced twice as much honey (62.2 kg), and colonies of 20 CIS with deep supers produced even significantly more honey (74.5 kg). However, the relationship between the financial values of the produced honey to the cost of its production was the highest - 1.52 : 1 for colonies of 10 CIS with a deep super. Therefore, this bee colony management is recommended to the beekeepers in the Terai region and lower hills of Nepal. This fi nding has global application.


EDIS ◽  
2013 ◽  
Vol 2013 (9) ◽  
Author(s):  
James D. Ellis ◽  
Katherine Hammons

One of the many challenges beekeepers face is minimizing honey bee colony losses during winter. This can be especially challenging to beekeepers in extreme northerly climates. Special preparations must be made during the fall to ensure that colonies survive the winter months with minimal loss. This 3-page fact sheet was written by James D. Ellis and Katherine Hammons and published by the UF Department of Entomology and Nematology, September 2013. http://edis.ifas.ufl.edu/in1006


Diversity ◽  
2021 ◽  
Vol 13 (6) ◽  
pp. 228
Author(s):  
Rositsa Shumkova ◽  
Ralitsa Balkanska ◽  
Tsvetoslav Koynarski ◽  
Peter Hristov

Honey bees (Apis mellifera L.) are crucial pollinators for many crops and natural ecosystems. However, honey bee colonies have been experiencing heavy overwinter mortality in almost all parts of the world. In the present study we have investigatеd, for the first time, the effects from the application of the herbal supplements NOZEMAT HERB® (NH) and NOZEMAT HERB PLUS® (NHP) on overwintering honey bee colony survival and on total protein and lysozyme content. To achieve this, in early autumn 2019, 45 colonies were selected and treated with these herbal supplements. The total protein and lysozyme content were evaluated after administration of NH and NHP twice the following year (June and September 2020). The obtained results have shown that both supplements have a positive effect on overwintering colony survival. Considerable enhancement in longevity of “winter bees” has been observed after the application of NHP, possibly due to the increased functionality of the immune system and antioxidant detoxification capacity. Although the mechanisms of action of NH and NHP are yet to be completely elucidated, our results suggest a new holistic approach on overwintering honey bee colony survival and welfare.


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