国家重点研发项目:中国陆地生态系统生态质量综合监测技术与规范研究（英文）

生态质量是指一定时空范围内生态系统要素、结构和功能的综合特征,具体表现为生态系统的状况、生产能力、结构和功能的稳定性、抗干扰和恢复能力。生态系统的质量是我国生态文明建设和生态环境监测的重要内容,多时空尺度观测技术的发展为生态系统质量监测与评价提供了新机遇,但同时也对国家尺度生态要素、生物多样性和生态功能的观测标准与技术规范提出了新的要求。本国家重点研发项目自2017年7月立项以来,围绕国家尺度生态质量监测技术与规范,开展了生态系统网络观测技术规范、台站生态要素监测、区域生物多样性和区域生态功能监测技术与规范的研究,在典型农林草湿地生态系统开展应用示范。项目在生态质量综合监测指标体系构建、生态系统研究网络观测技术、区域生物多样性和区域生态功能监测、基于无人机和机器学习的荒漠植被监测等方面取得了重要进展,促进了生态质量监测技术的发展。我们组织本专辑从不同视野集中系统介绍本项目已取得的生态质量监测技术和评价方法,以期促进生态学及其观测技术的发展。     

水工程建设对长江流域鱼类生物多样性的影响及其对策

长江流域鱼类种类丰富、资源量大、特有性高、经济种类多,其生物多样性具有重要的生态价值、经济价值和科学价值．流域内鱼类生物多样性由于面临河流梯级开发引起的洄游阻隔、生境破碎和水文情势等改变的严重威胁,种群下降趋势明显．为保护长江流域鱼类生物多样性,有必要更新水工程规划理念和设计技术,修建鱼道等必要过鱼设施,进行水库生态调度,建立鱼类自然保护区和建立生态补偿机制等．     

生物多样性信息学及其在地质学研究中的应用

对生物多样性信息学做了简要介绍,并说明了其在生物学与地质学交叉领域研究中的应用现状,指出了生物多样性信息学发展过程中存在的困难及其在地质学研究中的应用前景.生物多样性信息学在生物多样性信息数据库和生物多样性信息处理程序2方面取得了很大的进展,而古生物学、生物与环境协同演化、地质生态学等研究领域的一些课题已经应用了生物多样性信息学的成果.     

Conservation Priority Index for Estuarine Fish (COPIEF)

Public awareness regarding environmental issues has increased in recent decades. The increasing number of impact assessment studies, management and conservation plans, as well as ecological monitoring studies, demand new and more efficient techniques. Indices are an important tool to aid biologists in these studies and should allow an easier comprehension of the data by managers, decision-makers and the general public. This study presents the first multi-metrical index able to establish a hierarchical ordination of the conservation priority of the estuarine fish species using 72 species from 16 estuarine systems (W and S coasts of Portugal). The index is composed of 10 metrics, comprising species life traits, distribution and population trends. The information needed to score each metric was gathered from the published literature and the index validation was done by external means. This methodology allowed the definition of those fish species most in need of conservation planning, and those less prone to extinction in Portuguese estuarine systems. The proposed index fills a gap in our knowledge and provides a useful tool to the scientific community and to the decision-makers, being a breakthrough in the field of conservation planning of estuarine fish species.     

新疆福海第一农场水库浮游植物生态初步研究

于2008年7月(平水期)、10月(枯水期)和次年5月(丰水期)对新疆阿勒泰地区福海县第一农场水库浮游植物进行了生态学调查.共采集到浮游植物8门75种(属),其中绿藻28种、硅藻21种、蓝藻13种、裸藻6种、黄藻2种、甲藻2种、隐藻2种和金藻1种,绿藻和硅藻在种类组成上占明显优势.各期优势种不尽相同:平水期优势种为类颤...     

应用Excel 软件计算生物多样性指数

生物多样性指数是生物群落研究中的重要参数,广泛应用于海洋生态系统生物多样性的评价和研究。作者利用微软的电子表格软件Excel中的数组函数、条件函数及其他函数,提供了一种快速、简便、可靠的同时计算Shannon、Simpson、Berger-Parker、Margalef和Pielou均匀度指数等8种常用生物多样性指数的方法,应用开发的Excel文件——Biodixcel.xlsx,使用者只需在此文件列出的表格中一次性录入所要计算的原始数据即可在此表格中同时得到上述几个指数的计算结果,本方法为群落生物多样性的计算提供了一种简单、实用的工具。     

2011年南黄海辐射沙脊群海域浮游植物种类组成和密度的时空变化

于2011年2～12月,在南黄海辐射沙脊群海域设置6个采样站位,每逢双月份调查1次,研究该海域浮游植物密度及优势种的时空变化.调查共获得浮游植物87种,以硅藻种类最多.浮游植物密度呈周年双峰变化,分别在4月和8月成峰,4月峰值最大,水样浮游植物平均密度为1.59×104cells/dm3,网样浮游植物平均密度为2.71×106cells/m3,8月峰次之,水样浮游植物的平均密度为1.28×104cells/dm3,网样浮游植物平均密度为7.38×105cells/m3;浮游植物密度在2月和4月,北高南低,6月和8月中部高,外围较低,10月和12月南部高北部低.2月和4月,中肋骨条藻（Skeletonema costatum）为第一优势种,6月和12月虹彩圆筛藻（Coscinodiscus oculus-iridis）为第一优势种,8～10月琼氏圆筛藻（Coscinodiscus jonesianus）为第一优势种,枯水期（2月）铁氏束毛藻（Trichodesmium thiebautii）在局部海域形成优势.     

海洋生物诞生过程、新资源发掘与高值利用

本文以46亿年来地球、海洋及生命的形成与演化为主线,简要回顾了生命体由简单到复杂、从低级向高级、从水生到陆生逐级演化的历史进程,以及重大环境变化事件对生物毁灭性灭绝、生物适应与多样性演化的影响,阐明海洋尤其热带海洋在生命诞生、孕育及庇护等过程中所发挥的不可替代作用。同时,分析了热带海洋生物资源多样性中心形成的重要自然环境因素及可能机制。并针对印太交汇区深海极端环境微生物生态系统、浅海典型的海草/藻床、珊瑚礁、生物多样性和热带渔业资源,论述了热带海洋生物多样性资源的保护、发掘与高值开发利用。     

The relationship between soft-bottom macrobenthic communities and environmental variables off Ningjin, eastern Shandong Peninsula

Macrobenthic infauna and associated environmental factors influencing the benthic community in the eastern coastal region of Shandong Peninsula were analyzed in four seasonal surveys from January 2007 to October 2007 (30 stations in winter, 20 stations in other three seasons), in order to understand the community structure and the factors unfluencing the benthic distribution. PRIMER 6.0 and SPSS 15.0 software packages were adopted to analyze the environmental and macrobenthic data. The results show that there were 260 macrobenthic species in total collected from the research region. The composition of species is:Polychaeta (94 species), Crustacea (75), Mollusca (56) and Echinoderm (12), among which, only 23 species were common species in the cruises of every season. The dominant species varied from season to season; however, the polychaete species Paralacydonia paradoxa Fauvel and Echinoderm species Amphioplus japonicus (Matsumoto) were always present year-round. The abundance and biomass of the macrobenthos in the research region were variable from season to season. The results of CLUSTER and MDS analysis show that the similarities of macrobenthic structures between the stations were low; most of the similarities were at about 30% of similarity value, only two stations were up to 70%. In accordance with the similarity values of the macrobenthic structures, we divided the 20 stations into five groups by arbitrary similarity level of 30%. The ABC curve indicates that the marcofauna communities in the research region had not been disturbed massively, except two stations, SB1 and SB3. Ecologically, benthos were controlled by a combination of factors such as salinity, phytoplankton, zooplankton, SiO₃-Si and temperature, and no single factor could be considered as an ecological master factor.     

Designation of marine protected areas in Belgium: A legal and ecological success?

In Belgium a long process (1999–2005) led to the designation of several marine protected areas (MPAs). In order to analyse the designation process, the ‘policy arrangement approach’ was used as an analytical tool. Attention was given to four dimensions (actors and coalitions, arguments, rules and resources). Particular attention was paid to the switch from an authoritative to a more deliberated policy style in reaction to conflicts with stakeholders. This switch in policy style contributed to a successful legal designation, but does not guarantee the best protection of marine biodiversity. This case study linked science (setting ecological goals) to policy (analysis of a policy process) and led to some more general conclusions on the designation of MPAs and the role of participation in this process.