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藻华扩张和海洋保护区对气候干扰后珊瑚恢复的影响。

Effect of macroalgal expansion and marine protected areas on coral recovery following a climatic disturbance.

机构信息

Marine Science Program, Department of Environment and Conservation, Kensington, WA, 6151, Australia.

出版信息

Conserv Biol. 2012 Dec;26(6):995-1004. doi: 10.1111/j.1523-1739.2012.01926.x. Epub 2012 Sep 12.

DOI:10.1111/j.1523-1739.2012.01926.x
PMID:22971046
Abstract

Disturbance plays an important role in structuring marine ecosystems, and there is a need to understand how conservation practices, such as the designation of Marine Protected Areas (MPAs), facilitate postdisturbance recovery. We evaluated the association of MPAs, herbivorous fish biomass, substrate type, postdisturbance coral cover, and change in macroalgal cover with coral recovery on the fringing reefs of the inner Seychelle islands, where coral mortality after a 1998 bleaching event was extensive. We visually estimated benthic cover and fish biomass at 9 sites in MPAs where fishing is banned and at 12 sites where fishing is permitted in 1994, 2005, 2008, and 2011. We used analysis of variance to examine spatial and temporal variations in coral cover and generalized additive models to identify relations between coral recovery and the aforementioned factors that may promote recovery. Coral recovery occurred on all substrate types, but it was highly variable among sites and times. Between 2005 and 2011 the increase in coral cover averaged 1%/year across 21 sites, and the maximum increase was 4%/year. However, mean coral cover across the study area (14%) remained at half of 1994 levels (28%). Sites within MPAs had faster rates of coral recovery than sites in fished areas only where cover of macroalgae was low and had not increased over time. In MPAs where macroalgae cover expanded since 1998 there was no recovery. Where coral was recovering on granite reefs there was a shift in relative prevalence of colony life-form from branching to encrusting species. This simplification of reef structure may affect associated reef fauna even if predisturbance levels of coral cover are attained.

摘要

干扰在构建海洋生态系统中起着重要作用,需要了解保护实践(如海洋保护区的指定)如何促进干扰后的恢复。我们评估了海洋保护区、草食性鱼类生物量、基质类型、干扰后珊瑚覆盖率以及宏观藻类覆盖率的变化与塞舌尔群岛内部边缘礁珊瑚恢复的关联,1998 年白化事件后这些珊瑚礁大量死亡。1994 年、2005 年、2008 年和 2011 年,我们在禁止捕鱼的 9 个海洋保护区和允许捕鱼的 12 个地点进行了海底覆盖和鱼类生物量的目视估计。我们使用方差分析来检验珊瑚覆盖率的时空变化,并使用广义加性模型来确定珊瑚恢复与可能促进恢复的上述因素之间的关系。所有基质类型都发生了珊瑚恢复,但各地点和各时期的恢复情况差异很大。在 21 个地点,2005 年至 2011 年间珊瑚覆盖率的年平均增长率为 1%,最大增长率为 4%。然而,研究区域内的平均珊瑚覆盖率(14%)仍为 1994 年水平(28%)的一半。只有在大型藻类覆盖率低且没有随时间增加的情况下,保护区内的地点珊瑚恢复速度才快于有渔区的地点。在 1998 年以来大型藻类覆盖范围扩大的海洋保护区中,没有恢复。在花岗岩礁上珊瑚正在恢复的地方,珊瑚的相对优势生活型从分枝型向附生型转变。即使达到了珊瑚覆盖率的原始水平,这种珊瑚礁结构的简化也可能影响相关的礁区动物群。

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