Ants recognise infected wounds and treat them with antibiotics

Research on Matabele ants shows they can distinguish between clean and infected wounds in nestmates and treat the latter with antibiotic secretions from a specialized gland, cutting mortality by around 90%. Commenters highlight how this adds to a growing list of complex, seemingly “intelligent” ant behaviors, from farming fungi and aphids to organized warfare, and frame ant colonies as powerful examples of distributed cognition. The findings also prompt interest in potential medical applications for humans and renewed awe at how evolution produces sophisticated collective healthcare without centralized control.

Ant wound care and “ibiotics”

  • Commenters highlight the study’s finding: ants distinguish infected vs non‑infected wounds and selectively apply antibiotic secretions from the metapleural gland.
  • Reported 90% mortality reduction from treatment is considered “insanely impressive” and somewhat unsettling in its sophistication.
  • The gland’s secretion reportedly has 112 components, about half with antimicrobial or wound‑healing effects; some wonder what the rest do and whether humans could use them.

Ant intelligence and collective behavior

  • Many comments marvel at ants’ capabilities: farming aphids and fungus, highly coordinated seed harvesting, supercolonies, organized division of labor, and distributed “hive mind” behavior.
  • Several emphasize that individual ants may be simple, with complex colony behavior emerging from local rules and pheromone signaling.
  • Some draw parallels to cellular automata and distributed sensor/compute networks.

Mirror test and AI analogies

  • A claim that ants pass the mirror test is shared; another commenter is skeptical and suggests the paper may be flawed.
  • This triggers discussion of what a “mirror test” for LLMs would mean, whether LLMs have any “self,” and how self‑dialogue or token feedback relates to self‑recognition.

Comparisons to other animals and humans

  • Dog and wolf wound‑licking is discussed as rough analog to medical care; others warn it can cause severe human infections.
  • Some see ants as having “better healthcare” than humans, or note humans misusing antibiotics (e.g., livestock overuse, incomplete courses).
  • There’s debate over whether ants have “overlords” or whether colony behavior is emergent; also whether ants are “tiny robots” vs genuinely intelligent.

Evolution and mechanisms

  • One commenter is amazed that such a complex gland could emerge from “random mutation,” suggesting some deeper learning‑like process.
  • Others respond that evolution, microbiomes, pre‑existing glands, grooming behavior, and epigenetics can together plausibly produce such organs and behaviors.

Pharma, economics, and medical implications

  • Some imagine mining ant compounds for new antibiotics, especially against Pseudomonas aeruginosa, which infects both ants and humans.
  • Others note antibiotics are economically unattractive for large pharmaceutical companies, contrasting them with lucrative cancer and rare‑disease drugs, and discuss existing incentives (e.g., orphan‑drug style policies).

Ants as pests and control strategies

  • Multiple practical threads on household ant control: extreme cleanliness, bait with borax, diatomaceous earth, vinegar to erase trails, “truce offerings” of food, peppermint oil, ant moats, and structural sealing.
  • There’s tension between non‑lethal deterrence, ecosystem concerns, and the need to control invasive species.