HIVEOPOLIS · Project

Smart Beehive Technology That Monitors Colonies and Automates Honey Harvesting

foodTestedTRL 5Thin data (2/5)

Imagine a beehive that can look after itself — counting bees coming and going, harvesting honey automatically, and running on its own solar power. That's what this project built. The team created a high-tech beehive packed with sensors, robotics, and remote controls so beekeepers can check on their colonies from a phone, even in tough environments like cities or pesticide-heavy farmland. Think of it as a "smart home" for bees, keeping them healthy while feeding data back to the beekeeper and neighboring hives.

By the numbers

consortium partners across 6 countries

demonstrated prototype subsystems

total project deliverables

industry partner in consortium

The business problem

What needed solving

Beekeepers managing multiple hives in remote or harsh environments — near monoculture farms, in cities, or industrial areas — face mounting colony losses with no reliable way to monitor hive health remotely or harvest honey without manual intervention. Colony collapse costs the agriculture sector billions through lost pollination services, and current beekeeping tools haven't kept up with the scale of the problem.

The solution

What was built

The team built a complete smart beehive prototype with 9 demonstrated subsystems: a gate module counting bee traffic with remote open/close capability, an automatic honey harvesting system using tube extraction, a renewable energy power supply (solar, wind, vibrations) for off-grid operation, a hive core module, a dance floor monitoring module, and a user interface for remote and on-site colony management — all integrated into one coherent unit ready to house a bee colony.

Audience

Who needs this

Commercial beekeeping operations managing large numbers of hivesPrecision agriculture companies needing pollination managementAgTech equipment manufacturers looking for smart hive productsUrban farming and rooftop agriculture venturesAgricultural cooperatives providing pollination services to crop farmers

Business applications

Who can put this to work

Commercial Beekeeping & Apiary Management

SME

Target: Mid-to-large beekeeping operations managing 50+ hives

If you are a commercial beekeeper struggling to monitor dozens of hives spread across remote locations — this project developed a complete smart beehive unit with a gate module that counts bee flights, a remote user interface for each colony, and an automatic honey harvesting system that extracts honey through tubes into external storage. That means fewer site visits, earlier detection of colony problems, and automated harvesting without disturbing the bees.

Precision Agriculture & Pollination Services

mid-size

Target: Agricultural companies relying on pollination for crop yields

If you are a farming operation that depends on pollinator health for crop production in monoculture or pesticide-exposed fields — this project built a self-powered beehive system with renewable energy supply (solar, wind, vibrations) and embedded sensors that feed colony health data back to farm managers. The 7-partner consortium across 6 countries tested these systems to help colonies perform in harsh agricultural environments.

AgTech & Smart Farming Equipment

any

Target: Agricultural technology companies developing IoT farm solutions

If you are an AgTech company looking to expand your product line into pollinator management — this project produced open-source hardware and software for a modular smart beehive with 9 demonstrated subsystems including power supply, hive core, dance floor monitoring, and colony-level user interfaces. The open design approach (open software, open hardware, open data) means you could integrate these modules into existing farm management platforms.

Frequently asked

Quick answers

What would it cost to deploy this smart beehive system?

The project did not publish per-unit cost data. Given that the system integrates custom electronics, renewable power supply, sensors, and an automatic honey harvesting module, commercial pricing would depend on which subsystems a buyer needs. The open hardware approach could reduce costs for manufacturers willing to build from published designs.

Can this scale to hundreds or thousands of hives?

The project built a complete prototype integrating all mechanical and electronic subsystems with communication protocols and external software for data storage and analysis. The user interface supports both on-location and remote interaction per colony, which is essential for scale. However, moving from research prototypes to mass production would require manufacturing partnerships not currently in the consortium.

What about intellectual property and licensing?

The project emphasizes open software, open hardware, and open data, as stated in the objective. This suggests the core designs may be available for commercial adaptation. Specific licensing terms would need to be confirmed with the coordinator at Universitaet Graz.

Is this technology ready for real-world deployment?

The consortium produced 9 demo deliverables including a gate module prototype, automatic honey harvesting system, self-powered energy system, and a complete integrated HIVEOPOLIS unit ready to house a honeybee colony. These are functional prototypes tested in controlled conditions, not yet commercial products.

How does the power system work — does it need grid connection?

The hive includes a hybrid power system using energy harvested from renewable sources including solar, wind, and vibrations, with battery storage. This is designed to make the hive energy-independent, meaning no grid connection is needed for remote or field deployment.

What data can I actually get from the system?

The system provides bee flight counts (in- and outbound) via the gate module, colony-level monitoring through embedded sensors, and data storage and analysis through external software systems. The user interface allows both physical on-location and remote interaction with each individual colony.

Consortium

Who built it

The HIVEOPOLIS consortium is research-heavy: 6 universities and just 1 industry partner across 6 countries (Austria, Belgium, Bulgaria, Switzerland, Germany, Latvia), giving a 14% industry ratio. The coordinator is Universitaet Graz in Austria. For a business buyer, this means the technology was developed primarily in academic labs — strong on science, but the path to a commercial product would need manufacturing and distribution partners that aren't currently in the team. The 1 SME in the consortium may offer a bridge to commercialization, but the project's emphasis on open hardware and open software suggests the team designed for community adoption rather than a single commercial product line.

UNIVERSITAET GRAZCoordinator · AT
ECOLE POLYTECHNIQUE FEDERALE DE LAUSANNEparticipant · CH
UNIVERSITE LIBRE DE BRUXELLESparticipant · BE
LATVIJAS BIOZINATNU UN TEHNOLOGIJU UNIVERSITATEparticipant · LV
BII SMART TEKNOLODZHISparticipant · BG
HUMBOLDT-UNIVERSITAET ZU BERLINparticipant · DE
FREIE UNIVERSITAET BERLINparticipant · DE

How to reach the team

Universitaet Graz (Austria) — university coordinator, contact through project website or university directory

Order a report on this consortium See UNIVERSITAET GRAZ profile →

Next steps

Talk to the team behind this work.

Want to explore licensing the HIVEOPOLIS open hardware designs or connecting with the research team for a commercial beehive product? Contact SciTransfer for a tailored introduction.

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