Currently, in China, researchers are developing technologies that allow for the remote monitoring and even control of beehives using small electronic devices.
An innovative operation
The technologies rely on microcontrollers, a kind of integrated mini-computer, as well as a handful of sensors integrated all around and inside the hive. A central microcontroller, containing crucial information about bee health, provides details on elements such as temperature or humidity inside the hive. Cells placed underneath it provide insights into the amount of honey produced or indications of bee activity. A light sensor mounted outside detects brightness to indicate the bees’ activity rhythm. In addition to each of these sensors, there is a small motor that operates the opening and closing window between the interior and exterior (for example at night to prevent bees from leaving). Communicating all this information in real-time is made possible by wirelessly connecting to a remote control system.
Miniaturization and precision level
The electronic tools themselves are very small and lightweight, enabling them to be mounted directly on a variety of insects without interfering with their behavior. This operation is made possible by the miniaturization of the battery/electronic components. It is therefore possible to send specific electrical signals to targeted areas along the insect’s nervous system to control its movements.
Advantages and ethical considerations
This technology extends, in fact, from smart hive control to real-time monitoring from a computer (or smartphone). Issues can be identified without disturbing the bees.
With these developments, the electronic manipulation of living animals encounters other complications: how can technological progress be balanced with animal ethics? Researchers call for open reflection and appropriate guidelines to avoid harming animals.
Planned innovations
As this technology evolves, systems will only become smaller and more precise. Another major programmed advancement is to add artificial intelligence to microcontrollers to create an autonomous approach, for example, determining whether hives should open (or not) based on weather or predator presence. A new sensor could also detect diseases, infestations, or the presence of pesticides.
Multiple applications
Thanks to this technology, civil and military applications could emerge very soon.
In the civil realm, this innovation can support targeted pollination in agriculture when bee populations decrease, improve ecological pollution monitoring, or even track ecosystem evolution.
On a military level, the use of controlled insects could intervene in discreet reconnaissance operations in dangerous circumstances, securing information for reconnaissance purposes, such as detecting hazardous materials (chemical, biological, or explosive). They could also be used for secure communications by serving as relays or participating in targeted electronic intrusion operations for disruption purposes.
Finally, this technology offers the opportunity to create biohybrid robots that combine living organisms and electronics for various applications.
The battle to come
China is a pioneer in developing new technologies that merge biology with microelectronic devices.
The development of technologies to control living insects, like bees, raises major geopolitical issues related to the innovation race between major powers. Mastering these systems could confer a strategic advantage in terms of surveillance, security, and intelligence.
Moreover, the lack of specific international regulatory frameworks for this technology creates a field of uncertainty and potential rivalries among states.
