Plate Nº 24 · recorded October 10, 2026
Biology & EvolutionReported finding
Honey Bee Colonies Are Superorganisms, New Study Argues
A 2026 study reframes a honey bee colony — one queen, 200–300 drones and tens of thousands of workers — as a single superorganism, with implications for varroa mite management.
By Nathan Brooks3 min read612 words
In brief
- Published in Insectes Sociaux (2026), DOI: 10.1007/s00040-026-01124-7
- A typical colony contains 1 queen, 200–300 drones and tens of thousands of workers
- Authors: Hannes Bonhoff (Lund University) and Heikki Helanterä (University of Oulu)
- Under the superorganism model, a colony ages and dies after a few years, like a mammal
- The varroa mite is identified as a global parasite whose management the new framing could reshape
A study published in the journal Insectes Sociaux in 2026 argues that a honey bee colony operates as a single animal, a "superorganism," rather than as a crowd of independent insects.
The paper, authored by Hannes Bonhoff of Lund University and Professor Heikki Helanterä of the University of Oulu in Finland, frames the colony the way biologists describe a mammal: one body, many cooperating cells. "We have analyzed what it means for a bee colony to be a single organism, which opens up new insights into the fascinating life of the honey bee," Bonhoff said.
What is the new way of looking at the colony?
Standard textbooks count a colony by its members: 1 queen, 200–300 drones and tens of thousands of worker bees, each performing a specific task.
Bonhoff and Helanterä propose a different lens. Just as trillions of human cells form one body, the queen and her worker bees form one animal. The superorganism concept itself is not new, but applying it to a single honey bee colony in this depth represents a novel framing, the authors say.
How does swarming fit the comparison?
Bonhoff compares the colony to a mammal that goes through gestation and parental care. Three parallels anchor the argument:
- The colony develops from one founding individual, the queen.
- It ages through stages resembling embryo, juvenile and adult stages in mammals.
- The colony dies after a few years.
Swarming resembles mammalian reproduction. The queen and roughly half the colony fly off to establish a new hive. A daughter queen inherits the old nest, while the mother queen risks her life by leaving. "Parental care therefore goes so far that the offspring inherits the mother's nest, while she herself risks her life by swarming away to settle elsewhere," Bonhoff said.
The mother colony also helps the daughter colony in concrete ways:
- It provides food and shelter.
- It helps young bees learn the waggle dance.
- It guides foragers to the most nutritious flowers.
Why does this matter for beekeepers?
Bonhoff believes the superorganism view carries practical value, especially for managing the varroa mite, a parasitic arachnid that devastates hives worldwide. Two common beekeeping practices, the authors argue, conflict with the colony's natural biology:
- Replacing queens to keep colonies "young" indefinitely.
- Artificially preventing swarming.
"Modern beekeeping methods are based on the idea of keeping the colony young and healthy indefinitely. Our study shows that such interventions fundamentally conflict with the natural reproductive strategy and the ability to cope with parasites," Bonhoff said.
He calls for more sustainable, animal-friendly methods. Whether the re-framing translates into measurable gains for hive survival remains an open question that future experiments must address.
What are the limits of the argument?
The paper grew out of Bonhoff's master's thesis at Lund University, completed in 2025. Helanterä and Professor Niklas Wahlberg, a systematic biologist at Lund University, supervised the work.
"The concept itself has been around for a long time, but this is the first time it has been applied in a genuine biological context. It's fascinating to think that, just as individual cells make up an organism, individual bees with different roles make up the superorganism," Wahlberg said.
The analysis remains theoretical rather than experimental. The authors drew on existing literature and biological reasoning rather than fresh colony-level data. Readers should treat the superorganism framing as a useful perspective, not yet a tested management tool.
What happens next?
Bonhoff and Helanterä plan to extend the framework to other social insects, including ants and wasps. Beekeeping associations in Europe have begun discussing whether current queen-replacement and swarm-control practices deserve reform in light of the new framing.
via Phys.org Biology (Source)
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