SciTransfer
BETTER-B · Project

Increasing Honey Bee Colony Survival Through Climate and Pesticide Resilience Tools

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Imagine bees as a workforce that is currently burnt out by heat and chemicals. This work looks at 'wild' bees that survived on their own to find the secret genetic code for toughness. By copying these natural survival tricks and mapping where flowers actually grow, we can help beekeepers keep their colonies healthy.

By the numbers
4,897
A. mellifera whole-genome sequences analyzed
54
Countries providing genome sequences
17
Insecticide target sites screened
1,500
Honey bee samples collected for climate adaptation study
9,734
Mutations identified and classified
The business problem

What needed solving

Modern beekeeping practices have left colonies unable to survive extreme heat and pesticide exposure. This leads to colony collapse and reduced crop pollination efficiency.

The solution

What was built

A high-throughput screening tool for pesticide mutations and the BeePlantCalendar 2.0 for mapping floral resources.

Audience

Who needs this

Commercial Beekeeping OperationsAgrochemical R&D DepartmentsAgricultural Land Management FirmsBee Breeding Programs
Business applications

Who can put this to work

Commercial Apiculture
enterprise
Target: Industrial honey producers

If you are an industrial honey producer dealing with colony collapse due to heat waves — this project developed in-hive thermoregulation insights and Darwinian selection methods that improve bee survival rates.

Agrochemicals
enterprise
Target: Pesticide manufacturers

If you are a pesticide manufacturer dealing with regulatory pressure regarding pollinator toxicity — this project developed a high throughput screening tool using 17 insecticide target sites to identify which bee populations are most resilient to chemicals.

Agricultural Consulting
SME
Target: Farm management advisors

If you are a farm management advisor dealing with poor crop pollination — this project developed the BeePlantCalendar 2.0 and floral resource models to predict a landscape's pollinator carrying capacity.

Frequently asked

Quick answers

What is the cost of implementing these resilience tools?

Based on available project data, specific pricing or implementation costs for the tools are not provided.

Can these models be used at an industrial scale across Europe?

Yes, the project is creating European-wide coverage for floral resource models and has analyzed genome sequences from 54 countries.

How is the intellectual property or licensing handled for the screening tools?

Based on available project data, there is no specific mention of licensing terms or patent filings for the high throughput screening tool.

Are there regulations governing the use of Darwinian selection in beekeeping?

The project explores opting for Darwinian selection to mitigate stressors, but does not list specific regulatory constraints.

When will the final results be available for commercial integration?

The project period runs until 2027-05-31, suggesting that final validated results will be available by that date.

Consortium

Who built it

The consortium is heavily research-oriented with 11 universities and 3 research institutes, but maintains a 17% industry ratio with 3 industrial partners. This structure suggests the project is focused on fundamental genetic and ecological discovery, though the inclusion of SMEs and industry partners indicates a path toward practical application in apiculture.

How to reach the team

Contact Universiteit Gent regarding the BeePlantCalendar 2.0 and pollinator capacity models.

Next steps

Talk to the team behind this work.

Contact us to bridge the gap between these genetic findings and your commercial breeding program.

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