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Surface flow for colonial integration in reef-building corals

Current Biology 2022 24 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 40 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Olga Pantos, Thibault Bouderlique, Olga Pantos, Olga Pantos, Olga Pantos, Olga Pantos, Olga Pantos, Julian Petersen, Olga Pantos, Olga Pantos, Olga Pantos, Olga Pantos, Olga Pantos, Olga Pantos, Louis Faure, Olga Pantos, Olga Pantos, Olga Pantos, Olga Pantos, Tomáš Zikmund, Tomáš Zikmund, Tomáš Zikmund, Daniel Abed‐Navandi, Olga Pantos, Olga Pantos, Tomáš Zikmund, Olga Pantos, Jozef Kaiser, Olga Pantos, Jozef Kaiser, Anass Bouchnita, Olga Pantos, Olga Pantos, Tomáš Zikmund, Benjamin Mueller, Tomáš Zikmund, Tomáš Zikmund, Tomáš Zikmund, Tomáš Zikmund, Jozef Kaiser, Murtazo Nazarov, Lukas Englmaier, Tomáš Zikmund, Tomáš Zikmund, Olga Pantos, Tomáš Zikmund, Markéta Tesařová, Olga Pantos, Jozef Kaiser, Jozef Kaiser, Jozef Kaiser, Tomáš Zikmund, Jozef Kaiser, Pedro R. Frade, Jozef Kaiser, Tomáš Zikmund, Jozef Kaiser, Jozef Kaiser, Jozef Kaiser, Jozef Kaiser, Till Koehne, Jozef Kaiser, Olga Pantos, Jozef Kaiser, Kaj Fried, Christian Wild Olga Pantos, Andreas Hellander, John C. Bythell, Igor Adameyko, Olga Pantos, Christian Wild

Summary

Researchers discovered that reef-building corals connect their individual polyps — the tiny animals that make up a coral — through a stable network of surface currents driven by mucus, enabling the whole colony to feed together. Inside the coral, a branching canal system further links polyps and expands their functional surface area fourfold, offering new clues about how corals survive as cooperative superorganisms.

Reef-building corals are endangered animals with a complex colonial organization. Physiological mechanisms connecting multiple polyps and integrating them into a coral colony are still enigmatic. Using live imaging, particle tracking, and mathematical modeling, we reveal how corals connect individual polyps and form integrated polyp groups via species-specific, complex, and stable networks of currents at their surface. These currents involve surface mucus of different concentrations, which regulate joint feeding of the colony. Inside the coral, within the gastrovascular system, we expose the complexity of bidirectional branching streams that connect individual polyps. This system of canals extends the surface area by 4-fold and might improve communication, nutrient supply, and symbiont transfer. Thus, individual polyps integrate via complex liquid dynamics on the surface and inside the colony.

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