Research shows that corals share many of the genes that humans possess

University of Hawaiʻi at Mānoa
Contact:
Tina Shelton, (808) 692-0897
Director of Communications, Office of Dean of Medicine
Alexander Stokes, PhD, (808) 554-2586
Assistant Professor, Cell and Molecular Biology
Posted: May 31, 2016

Corals in Kaneohe Bay, University of Hawaii photo.
Corals in Kaneohe Bay, University of Hawaii photo.

UH Mānoa scientists at the John A. Burns School of Medicine and the Hawaiʻi Institute of Marine Biology have published new research showing that corals share many of the genes humans possess, especially those that can sense temperature and acidity, both of which are important to keeping both coral and humans healthy.

The findings, published in the journal eLife, are the result of the world’s most comprehensive analysis of coral genes. The international research team focused on how corals reefs, the most diverse marine ecosystems on Earth, have evolved to allow them to interact with and adapt to their environment.

Led by Rutgers University, the research team included UH scientists Alexander Stokes, PhD, Assistant Professor of Cell and Molecular Biology, JABSOM Laboratory of Experimental Medicine; and Ruth D. Gates, PhD, Director of the Hawaiʻi Institute of Marine Biology, the only research center located on a coral reef, part of the UHM School of Ocean and Earth Science and Technology. Stokes and Gates collaborated with researchers from Australia, Saudi Arabia, Okinawa, Germany, Monaco and Israel. 

“As someone who studies ion channels in human diseases, it was surprising to find that corals share many of the genes we possess,” said Dr. Stokes. "I think the extensive studies of human diseases and the genes that can cause these diseases can tell us a great deal about the problems and diseases that coral have. Coral, for example, has a skeleton not so dissimilar from ours, and similar genes that regulate their growth, metabolism and responses to environment.”

Dr. Stokes said the next step in the research is to characterize these channels in detail, to see if they work the same, and at what thresholds and ranges of temperature or acidity they activate. “This will give us a better understanding of how and when corals can respond to changes in their environment,” he said.

In a separate study also published this month, the international research team explained the origin and evolution of the unique genes that allow corals to create hard skeletons. That research is reported in the Proceedings of the Royal Society B: Biological Sciences.

The coral gene database study, in the open-access journal eLife, is titled, “Comparative genomics explains the evolutionary success of reef-forming corals.”

Funding:

The work was made possible by grants from the National Science Foundation, especially EF-1408097, to PGF, DB, RDG, HMP and TM. The National Science Foundation through grants EF-1041143/RU 432635 and EF-1416785 awarded to PGF, DB, and TM, respectively, provided additional funding. RDG, HMP, and AJS were supported by grants from the National Institutes of Health, NIMHD P20MD006084, the Hawaiʻi Community Foundation, Leahi Fund 13ADVC-60228 and NSF OCE PRF 1323822 and National Science Foundation Experimental Program to Stimulate Competitive Research Hawaiʻi: EPS-0903833. CRV and MA acknowledge funding by the King Abdullah University of Science and Technology (KAUST).

For more information, visit: http://jabsom.hawaii.edu