Illing Björn, Rummer Jodie L
Australian Research Council Centre of Excellence for Coral Reef Studies, James Cook University, Townsville, QLD 4811, Australia.
Institute of Hydrobiology and Fisheries Science, University of Hamburg, Hamburg D-22767, Germany.
Conserv Physiol. 2017 Feb 23;5(1):cox005. doi: 10.1093/conphys/cox005. eCollection 2017.
Coral reef fishes, like many other marine organisms, are affected by anthropogenic stressors such as fishing and pollution and, owing to climate change, are experiencing increasing water temperatures and ocean acidification. Against the backdrop of these various stressors, a mechanistic understanding of processes governing individual organismal performance is the first step for identifying drivers of coral reef fish population dynamics. In fact, physiological measurements can help to reveal potential cause-and-effect relationships and enable physiologists to advise conservation management by upscaling results from cellular and individual organismal levels to population levels. Here, we highlight studies that include physiological measurements of coral reef fishes and those that give advice for their conservation. A literature search using combined physiological, conservation and coral reef fish key words resulted in ~1900 studies, of which only 99 matched predefined requirements. We observed that, over the last 20 years, the combination of physiological and conservation aspects in studies on coral reef fishes has received increased attention. Most of the selected studies made their physiological observations at the whole organism level and used their findings to give conservation advice on population dynamics, habitat use or the potential effects of climate change. The precision of the recommendations differed greatly and, not surprisingly, was least concrete when studies examined the effects of projected climate change scenarios. Although more and more physiological studies on coral reef fishes include conservation aspects, there is still a lack of concrete advice for conservation managers, with only very few published examples of physiological findings leading to improved management practices. We conclude with a call to action to foster better knowledge exchange between natural scientists and conservation managers to translate physiological findings more effectively in order to obtain evidence-based and adaptive management strategies for the conservation of coral reef fishes.
与许多其他海洋生物一样,珊瑚礁鱼类受到捕捞和污染等人造压力源的影响,并且由于气候变化,正面临水温不断升高和海洋酸化的问题。在这些各种压力源的背景下,对控制个体生物性能的过程进行机制性理解是识别珊瑚礁鱼类种群动态驱动因素的第一步。事实上,生理测量有助于揭示潜在的因果关系,并使生理学家能够通过将细胞和个体生物水平的结果扩大到种群水平来为保护管理提供建议。在这里,我们重点介绍了包括珊瑚礁鱼类生理测量的研究以及那些为其保护提供建议的研究。使用生理、保护和珊瑚礁鱼类关键词组合进行的文献检索产生了约1900项研究,其中只有99项符合预定义要求。我们观察到,在过去20年中,珊瑚礁鱼类研究中生理和保护方面的结合受到了越来越多的关注。大多数选定的研究在整个生物体水平上进行生理观察,并利用其发现就种群动态、栖息地利用或气候变化的潜在影响提供保护建议。这些建议的精确程度差异很大,不出所料的是,当研究考察预计的气候变化情景的影响时,建议最不具体。尽管越来越多关于珊瑚礁鱼类的生理研究包括保护方面,但仍然缺乏给保护管理人员的具体建议,只有极少数已发表的生理研究结果导致管理实践改进的例子。我们最后呼吁采取行动,促进自然科学家和保护管理人员之间更好的知识交流,以便更有效地转化生理研究结果,从而获得基于证据的适应性管理策略来保护珊瑚礁鱼类。