Abstract
It is a widely held concept that tropical coral reefs in shallower water with branched acroporid corals should accrete faster than those in deeper water dominated by massive corals. Results from a study of Holocene development of the largest Atlantic reef system, including paleo-waterdepth data, challenge these concepts. In Belize barrier and atoll reefs, reef accretion-rates range from 0.46 to 7.50 m/kyr, and average 3.03 m/kyr, as measured along 33 dated reef sections. Interestingly, accretion-rates increase with increasing paleo-waterdepth, and sections dominated by massive corals accumulated even slightly faster than those with branched acroporids. Published data from some other reef locations reveal no significant trends when plotting reef accretion-rate versus paleo-waterdepth, also indicating that the above-mentioned concepts should be questioned. Massive corals apparently are more resistant and accrete in lower disturbance conditions in slightly deeper water (5–10 m) and higher accomodation (space available for sediment deposition) as compared to shallow water (0–5 m) branched acroporids, which repeatedly get broken and leveled out during tropical cyclones.
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Acknowledgements
I thank the Deutsche Forschungsgemeinschaft (DFG; German Research Foundation) and Chevron Overseas Petroleum Inc. for financing the projects to obtain the core material. I am grateful to H. Hudson, N. Jackson Jr., A. Lomando, and G. Meyer who were reliable partners during drilling operations. The comments by D. Barnes, R. Ginsburg, B. Rosen, journal reviewers G. Cabioch and J. Webster, and editors C. Dullo and L. Montaggioni improved the paper and are gratefully acknowledged.
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Gischler, E. Accretion patterns in Holocene tropical coral reefs: do massive coral reefs in deeper water with slowly growing corals accrete faster than shallower branched coral reefs with rapidly growing corals?. Int J Earth Sci (Geol Rundsch) 97, 851–859 (2008). https://doi.org/10.1007/s00531-007-0201-3
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DOI: https://doi.org/10.1007/s00531-007-0201-3