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• W3109303908 endingPage "e0242847" @default.
• W3109303908 startingPage "e0242847" @default.
• W3109303908 abstract "The escalating rate at which coral communities are declining globally requires urgent intervention and new approaches to reef management to reduce and halt further coral loss. For reef systems with limited natural larval supply, the introduction of large numbers of competent coral larvae directly to natural reef substrata provides a potentially useful approach to replenish adult coral populations. While few experiments have tested this approach, only one experiment has demonstrated its long-term success to date. Given the differences in life-history traits among corals, and different sensitivities of larvae to abiotic and biotic factors, coupled with the dynamic nature of post-settlement survivorship and recruitment processes, trials of the larval enhancement technique with larvae of different coral species are needed to test the broader applicability and viability of this approach. Accordingly, in this paper we examine the applicability of the larval enhancement technique to restore a population of Acropora loripes in the Bolinao-Anda Reef Complex, Pangasinan, northwestern Philippines. Larvae were cultured ex situ following spawning of collected A . loripes colonies in June 2014. Competent larvae were transported to degraded reef areas and approximately 300,000 larvae were introduced in each of three 6 × 4 m plots directly on the reef. Fine mesh enclosures retained the larvae inside each treatment plot for five days. Three adjacent 6 × 4 m plots that served as controls were also covered with mesh enclosures, but no larvae were introduced. Each plot contained ten 10 × 10 cm conditioned settlement tiles cut from dead tabulate Acropora that were used to quantify initial larval settlement. After allowing larval settlement for five days, mean settlement on tiles from the larval enhancement plots that were monitored under stereomicroscopes was significantly higher (27.8 ± 6.7 spat per tile) than in control plots, in which not a single recruit was recorded. Post-settlement survivorship and growth of spat and coral recruits on tiles and reef substrata inside the experimental plots were monitored periodically for 35 months. After 35 months, the mean size of each of the remaining 47 A . loripes coral colonies surviving on the reef substrata was 438.1 ± 5.4 cm 3 , with a mean diameter of 7.9 ± 0.6 cm. The average production cost for each of the surviving A . loripes colonies at 35 months was USD 35.20. These colonies are expected to spawn and contribute to the natural larval pool when they become reproductively mature, thereby enhancing natural coral recovery in the area. This study demonstrates that mass coral larval enhancement can be successfully used for restoring populations of coral species with different life-history traits, and the techniques can rapidly increase larval recruitment rates on degraded reef areas, hence catalysing the regeneration of declining coral populations." @default.
• W3109303908 created "2020-12-07" @default.
• W3109303908 creator A5079100280 @default.
• W3109303908 creator A5089722586 @default.
• W3109303908 date "2020-11-24" @default.
• W3109303908 modified "2023-10-17" @default.
• W3109303908 title "Enhancing coral recruitment through assisted mass settlement of cultured coral larvae" @default.
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• W3109303908 cites W1969273469 @default.
• W3109303908 cites W1975176287 @default.
• W3109303908 cites W1975902215 @default.
• W3109303908 cites W1984487358 @default.
• W3109303908 cites W1984622839 @default.
• W3109303908 cites W1991617442 @default.
• W3109303908 cites W1993480249 @default.
• W3109303908 cites W2000565053 @default.
• W3109303908 cites W2001981230 @default.
• W3109303908 cites W2003369569 @default.
• W3109303908 cites W2007785268 @default.
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• W3109303908 cites W2009897528 @default.
• W3109303908 cites W2010278214 @default.
• W3109303908 cites W2010380370 @default.
• W3109303908 cites W2011130662 @default.
• W3109303908 cites W2011435702 @default.
• W3109303908 cites W2011806055 @default.
• W3109303908 cites W2014842284 @default.
• W3109303908 cites W2020975167 @default.
• W3109303908 cites W2026451153 @default.
• W3109303908 cites W2027954001 @default.
• W3109303908 cites W2029529982 @default.
• W3109303908 cites W2034638449 @default.
• W3109303908 cites W2038158566 @default.
• W3109303908 cites W2038857363 @default.
• W3109303908 cites W2043724942 @default.
• W3109303908 cites W2049337196 @default.
• W3109303908 cites W2055354623 @default.
• W3109303908 cites W2058791182 @default.
• W3109303908 cites W2074953678 @default.
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• W3109303908 cites W2082665220 @default.
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• W3109303908 cites W2098751975 @default.
• W3109303908 cites W2109870801 @default.
• W3109303908 cites W2113727904 @default.
• W3109303908 cites W2140913808 @default.
• W3109303908 cites W2164557179 @default.
• W3109303908 cites W2167850477 @default.
• W3109303908 cites W2168770271 @default.
• W3109303908 cites W2169570278 @default.
• W3109303908 cites W2170665303 @default.
• W3109303908 cites W2204670883 @default.
• W3109303908 cites W235000712 @default.
• W3109303908 cites W2481970566 @default.
• W3109303908 cites W2502592061 @default.
• W3109303908 cites W2515488144 @default.
• W3109303908 cites W2594335126 @default.
• W3109303908 cites W2751121440 @default.
• W3109303908 cites W2765989253 @default.
• W3109303908 cites W2769010850 @default.
• W3109303908 cites W2775886332 @default.
• W3109303908 cites W2780304924 @default.
• W3109303908 cites W2782456798 @default.
• W3109303908 cites W2789448843 @default.
• W3109303908 cites W2801529093 @default.
• W3109303908 cites W2918155969 @default.
• W3109303908 cites W2936778488 @default.
• W3109303908 cites W2946127127 @default.
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• W3109303908 cites W3005836752 @default.
• W3109303908 cites W3009701001 @default.
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• W3109303908 doi "https://doi.org/10.1371/journal.pone.0242847" @default.
• W3109303908 hasPubMedCentralId "https://www.ncbi.nlm.nih.gov/pmc/articles/7685485" @default.
• W3109303908 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/33232367" @default.
• W3109303908 hasPublicationYear "2020" @default.
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