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Rangeland afforestation is not a natural climate solution 牧场造林不是自然气候解决方案
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-03-07 DOI: 10.1002/fee.2727
David D Briske, Susanne Vetter, Corli Coetsee, Matthew D Turner

Large-scale tree planting on global rangelands is promoted as a natural climate solution (NCS), but there is little scientific evidence to support this narrative. The presumed benefits of rangeland afforestation originate from five major misconceptions: (1) conflation between reforestation and afforestation, (2) overestimation of carbon (C) sequestration potential, (3) insufficient recognition of rangeland ecosystem services, (4) potential for adverse ecological outcomes, and (5) neocolonial tendencies of afforestation programs. Rangeland afforestation possesses minimal potential for additional C storage, but it has high potential to reduce vital rangeland ecosystem services that benefit rangeland residents and non-residents alike. Conservation of existing C—most of which is stored belowground, where it is less vulnerable to loss—may prove to be the most appropriate NCS for extensively managed rangelands. Stewardship strategies promoting rangeland multifunctionality will not only contribute to climate-change mitigation but also support biodiversity conservation and sustainable production of high-protein foods for marginalized populations.

在全球牧场大规模植树造林被宣传为一种自然气候解决方案(NCS),但几乎没有科学证据支持这种说法。牧场造林的假定效益源自五大误解:(1)混淆了重新造林和植树造林;(2)高估了碳(C)螯合潜力;(3)对牧场生态系统服务认识不足;(4)可能造成不利的生态结果;(5)造林计划的新殖民主义倾向。牧场造林在增加碳储存方面的潜力微乎其微,但却极有可能减少牧场居民和非居民都能受益的重要牧场生态系统服务。保护现有的碳--其中大部分储存在地下,不易流失--可能被证明是最适合广泛管理的牧场的非碳捕获量。促进牧场多功能性的管理战略不仅有助于减缓气候变化,还能支持生物多样性保护和为边缘化人群提供可持续的高蛋白食品生产。
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引用次数: 0
Male and female crab spiders “cooperate” to mimic a flower 雌雄蟹蛛 "合作 "模仿花朵
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-03-01 DOI: 10.1002/fee.2721
Shi-Mao Wu, Jiang-Yun Gao

Female crab spiders (Thomisus spp) are able to camouflage themselves as flowers not only to successfully avoid being preyed upon by birds but also to ambush flower-visiting insect prey (Nature 2002; doi.org/10.1038/415133a). This mimicry manipulates flower signals and may vary from species to species. However, do male crab spiders, which are usually much smaller in size and darker in coloration than females, also camouflage themselves in this way?

In a tropical rainforest in Xishuangbanna (Yunnan, China), we observed one male and one female crab spider (Thomisus guangxicus; Thomisidae) in an apparent partnership, to jointly mimic a single Hoya pandurata (Asclepiadaceae) flower. In this image, where the male crab spider lies on the back of the conspecific female, the male appears to mimic a flower's pistils and stamens while the female appears to mimic that same flower's fused corolla. The flower's complex color is matched as a whole only when individual spiders of both sexes are present. This could be an example of “cooperation” that expands the niche of both females and males in mimicry systems, and cooperating individuals may have improved survivorship and predation efficiency. It would also be interesting to investigate the co-evolution between male and female crab spiders.

雌蟹蜘蛛(Thomisus spp)能够将自己伪装成花朵,不仅能成功避免被鸟类捕食,还能伏击花朵上的昆虫猎物(《自然》,2002 年;doi.org/10.1038/415133a)。这种拟态操纵了花的信号,可能因物种而异。在西双版纳(中国云南)的热带雨林中,我们观察到一只雄性和一只雌性蟹蜘蛛(Thomisus guangxicus; Thomisidae)明显结成伙伴关系,共同模仿一朵Hoya pandurata(菊科)花。在这张图片中,雄性蟹蛛趴在同种雌性蟹蛛的背上,雄性蟹蛛似乎在模仿花朵的雌蕊和雄蕊,而雌性蟹蛛似乎在模仿花朵融合的花冠。只有当雌雄蜘蛛同时出现时,花朵的复杂颜色才能整体匹配。这可能是 "合作 "的一个例子,"合作 "扩大了模仿系统中雌性和雄性的生存空间,合作的个体可能会提高生存率和捕食效率。研究雌雄蟹蛛之间的共同进化也很有趣。
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引用次数: 0
Why we all lose when Indigenous women suffer: an ecological perspective 为什么土著妇女遭受苦难时我们都是输家:生态学视角
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-03-01 DOI: 10.1002/fee.2717
Joseph Gazing Wolf

Indigenous women are the guardians of the environmental foundations of life on Earth. From the Idle No More movement to the protest against the Dakota Access Pipeline to countless camps, sit-ins, political campaigns, and litigations, Indigenous women defend Earth from the extractive onslaught she experiences. Importantly, they are not just “climate leaders” who function at the proverbial altitude of 30,000 feet: they also organize to protect the lives and livelihoods of individuals. For 37 years, I have been present with Amazigh, Nubian, Coptic, Waorani, Lakota, and Levantine Bedouin women as they stood in the paths of bulldozers and soldiers eager to destroy the lands of families in their communities.

Indigenous women also restore what was taken. From traditional fire to Tatanka (the Lakota term for bison) to seed rematriation to LandBack, Indigenous women are the bees—both workers and queens—of ecological restoration. As living repositories of ecological knowledge, they hold the collective intelligence of ancestral lands, waters, and cultures. Were it not for my grandmothers and aunties, I would be ignorant of the traditional foodways of my Amazigh and Nubian ancestors: foodways that were in use over 30,000 years ago and today allow me to store food without refrigeration.

Among Indigenous women, one common quality that makes them effective environmental leaders is that they do not remain neutral or objective. While in Ecuador working with Kichwa and Waorani communities in 2023, I joined a protest against illegal mining. I stood by the side of Indigenous women, filming them as they took over a city, faced down the local governor's soldiers, forced the governor out of his office, and made him answer to the people. The reason I had the privilege of a front-row seat to the action was because these women were not only my Kichwa and Waorani language teachers but also ecological knowledge holders in the communities with whom I was staying. They also frequent Ecuadorian courtrooms to litigate against the predatory industries that exploit their resource-rich lands in the Amazon (eg agribusiness, logging, oil, mining). These mismatched battles often involve legions of well-paid commercial lawyers facing off against local leaders from rural communities. The women shoulder these burdens while often working more than one job to pay the bills and simultaneously acting as caretakers, mothers, and community leaders.

The natural resource abuses by the Global North often involve blurred lines between governments, multinational corporations, and criminal enterprises such as drug cartels. State-sponsored terrorism on Indigenous lands, supported by companies with regional interests, is—when not conducted by soldiers—seized upon by opportunistic criminal enterprises. In the Amazon, oil and mining companies put constant pressure on local governments and Indigenous communities to allow roads to expand ever deeper into the forest. These tentacles o

由于这种努力在世界各地和各生态区域无处不在,因此,为了每个人的利益,土著妇女的福祉应成为全球气候行动和政策的重中之重。
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引用次数: 0
Whale sharks and tunas hunt together 鲸鲨和金枪鱼一起捕食
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-03-01 DOI: 10.1002/fee.2718
Jorge Fontes, Pedro Afonso, Bruno Macena

The world's largest extant fish, the whale shark (Rhincodon typus), is a docile giant that occurs in tropical and subtropical regions globally. It prefers to feed on plankton, which it filters through its wide mouth. Adult whale sharks have been reported to occur in large numbers during warm summers off the Azores, an isolated archipelago on the mid-North Atlantic ridge (PLoS ONE 2014; doi.org/10.1371/journal.pone.0102060). As this oceanic region is oligotrophic, the whale shark's favorite food is not abundant. Instead, we found that they prey on snipefish (Macroramphosus sp) that have been corralled into “bait balls” at the surface by large schools of bluefin (Thunnus thynnus) and tropical tunas, including bigeye (Thunnus obesus), skipjack (Katsuwonus pelamis), and yellowfin (Thunnus albacares). A feeding frenzy often ensues. With the baitfish corralled, the whale sharks then rely on powerful suction to fill their massive mouths with prey. This shark–tuna feeding association has rarely been observed elsewhere, yet in these islands it is the norm when both whale sharks and tunas are present. We have tagged whale sharks with high-resolution biologgers (with accelerometers, cameras, and gauges to measure location, pressure, and temperature) to help elucidate the ecological importance of this unique associative behavior.

世界上现存最大的鱼类--鲸鲨(Rhincodon typus)是一种温顺的庞然大物,分布于全球热带和亚热带地区。它喜欢以浮游生物为食,浮游生物通过它宽大的嘴巴过滤。据报道,成年鲸鲨会在温暖的夏季大量出现在亚速尔群岛附近海域,亚速尔群岛是北大西洋中脊上一个与世隔绝的群岛(PLoS ONE 2014;doi.org/10.1371/journal.pone.0102060)。由于这片海域是低营养区,鲸鲨最喜欢的食物并不丰富。相反,我们发现鲸鲨会捕食被大群蓝鳍金枪鱼(Thunnus thynnus)和热带金枪鱼(包括大眼金枪鱼(Thunnus obesus)、鲣鱼(Katsuwonus pelamis)和黄鳍金枪鱼(Thunnus albacares))在海面围成 "诱饵球 "的箭鱼(Macroramphosus sp)。一场觅食狂潮往往随之而来。鲸鲨捕获饵鱼后,依靠强大的吸力将猎物塞满它们巨大的嘴巴。这种鲨鱼与金枪鱼的进食关系在其他地方很少被观察到,但在这些岛屿上,当鲸鲨和金枪鱼同时出现时,这种进食关系就是常态。我们用高分辨率生物探测器(带有加速度计、摄像机和测量位置、压力和温度的仪表)对鲸鲨进行标记,以帮助阐明这种独特的联合行为在生态学上的重要性。
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引用次数: 0
Standing on one foot 单脚站立
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-03-01 DOI: 10.1002/fee.2720
Cássio Cardoso Pereira

As their name implies, ground birds typically spend much of their time foraging on the ground. Regardless of their capacity to fly, ground birds all use their legs more than their wings; for those that can fly, they usually do so to escape predators or reach areas that are inaccessible by walking. This is the case of the red-legged seriema (Cariama cristata; Cariamidae), avian symbol of the Cerrado (Brazilian savanna). Capable of reaching 90 cm in length and weighing up to 1.5 kg, seriemas search for and prey on insects and small vertebrates on the ground (Rev Bras Ornitol 2016; doi.org/10.1007/BF03544333). If pursued, seriemas can run at speeds up to 70 km per hour before taking flight. But how does this imposing bird deal with muscle fatigue in its legs?

In the Cerrado of Minas Gerais, Brazil, this adult specimen—after a long walk, in search of food—climbed onto a termite mound and, after raising and placing its right foot onto its left leg, remained static for about 15 minutes while observing the landscape before returning to hunting. To the best of my knowledge, the behavior captured in this photograph has not been previously reported in seriemas.

Does this posture allow a bird to distribute its weight without requiring muscle work by the supporting leg? Does the bird take turns standing on each of its legs? Do seriemas expend less energy when standing on one leg than when standing on two legs, similar to flamingos (Phoenicopteridae) (Biol Lett 2017; doi.org/10.1098/rsbl.2016.0948)? Does this behavior help regulate body temperature? Standing on one foot may be an important strategy for energy regulation in these birds.

顾名思义,地栖鸟类通常大部分时间都在地面上觅食。无论它们是否会飞,所有的地鸟都更多地使用腿而不是翅膀;对于那些会飞的地鸟来说,它们通常是为了躲避天敌或到达步行无法到达的地方。巴西热带稀树草原(Cerrado)的象征--红腿绢鸟(Cariama cristata; Cariamidae)就属于这种情况。红腿绢云雀体长可达 90 厘米,体重达 1.5 千克,在地面上搜寻并捕食昆虫和小型脊椎动物(Rev Bras Ornitol 2016;doi.org/10.1007/BF03544333)。如果被追捕,蛇尾雉在起飞前能以每小时 70 公里的速度奔跑。在巴西米纳斯吉拉斯州的塞拉多地区,这只成年标本在经过长途跋涉寻找食物后,爬上了一个白蚁堆,然后抬起右脚放在左腿上,静止了大约 15 分钟,观察了一下周围的景色,然后继续捕食。据我所知,这张照片中捕捉到的行为以前从未在连续剧中报道过。这种姿势是否能让鸟类在不需要支撑腿的肌肉工作的情况下分散体重?鸟类是否轮流站立在每条腿上?与火烈鸟(Phoenicopteridae)(Biol Lett 2017;doi.org/10.1098/rsbl.2016.0948)类似,大红椋鸟单腿站立时消耗的能量是否少于双腿站立时?这种行为是否有助于调节体温?单脚站立可能是这些鸟类调节能量的重要策略。
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引用次数: 0
The cephalopod beats the elasmobranch 头足类战胜箭亚纲动物
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-03-01 DOI: 10.1002/fee.2719
Víctor Orenes-Salazar, Javier Ferrer

Three major taxa comprise the bulk of the diet of the common octopus Octopus vulgaris (class Cephalopoda). Besides mollusks and crustaceans, some small fishes (infraclass Teleostei) are also typically found in octopus stomachs (Thalassas 2018; doi.org/10.1007/s41208-018-0084-z). In June 2020, we witnessed a predation event of O vulgaris on the common guitarfish or shovelnose ray Rhinobatos rhinobatos (class Chondrichthyes, subclass Elasmobranchii) off the coast of Cabo de Palos (southeastern Spain, western Mediterranean). To the best of our knowledge, this observation is the first documented record of predation between these two species.

We observed the predation event while hovering at a depth of 15 m in the ecotone between a seagrass (Posidonia oceanica) meadow and the sandy bottom. The very large octopus had completely immobilized the guitarfish, which was on its back on the seafloor with no chance of escape. How did these two animals initially encounter each other? Did the octopus actively prey on the fish? Given the peculiarity of the event, we hypothesize that the guitarfish was presumably injured or weak, especially considering the opportunistic feeding behavior of the octopus. This recorded event is especially relevant from a conservation viewpoint, given that R rhinobatos is considered extirpated from Spanish Mediterranean waters and is globally cataloged as Critically Endangered on the IUCN Red List of Threatened Species (see also Newell 2017; https://repository.library.noaa.gov/view/noaa/16215).

普通章鱼(头足纲)的食物主要由三个类群组成。除了软体动物和甲壳类动物,章鱼胃中通常还能发现一些小型鱼类(纲下)(Thalassas,2018 年;doi.org/10.1007/s41208-018-0084-z)。2020 年 6 月,我们在 Cabo de Palos(西班牙东南部,地中海西部)沿海目睹了 O vulgaris 对普通吉他鱼或铲鼻魟 Rhinobatos rhinobatos(软骨鱼类,鮨亚纲)的捕食事件。据我们所知,这是首次记录到这两个物种之间的捕食行为。我们是在海草(Posidonia oceanica)草甸和沙质海底之间的生态区域 15 米深处盘旋时观察到这一捕食事件的。体型巨大的章鱼将吉他鱼完全固定住,吉他鱼仰面躺在海底,没有任何逃脱的机会。这两种动物最初是如何相遇的?章鱼是否主动捕食了吉他鱼?鉴于事件的特殊性,我们推测吉他鱼可能受伤或虚弱,特别是考虑到章鱼的机会主义捕食行为。从保护的角度来看,这一记录事件尤其具有现实意义,因为Rhinobatos被认为已经在西班牙地中海水域灭绝,并且在世界自然保护联盟濒危物种红色名录中被列为全球极度濒危物种(另见Newell 2017; https://repository.library.noaa.gov/view/noaa/16215)。
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引用次数: 0
Dynamic connectivity assessment for a terrestrial predator in a metropolitan region 大都市地区陆生掠食者的动态连接性评估
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-02-12 DOI: 10.1002/fee.2633
Tiziana A. Gelmi-Candusso, Andrew TM Chin, Connor A Thompson, Ashley AD McLaren, T. Wheeldon, Brent R. Patterson, Marie‐Josée Fortin
Protecting wildlife movement corridors is critical for species conservation. Urban planning often aims to create corridors for animal movement through conservation initiatives. However, research on connectivity for urban wildlife is limited. Here, we assessed connectivity for coyotes (Canis latrans) dynamically across temporal scales and demographic traits, parametrized using the habitat selection of 27 global positioning system (GPS)‐collared coyotes in the city of Toronto, Canada. The habitat selection models accounted for human population density, impervious area, vegetation density, and distance to different linear features. Results indicated that (1) vegetation‐dense areas were key for connectivity in urban areas; (2) riverbanks, railways, and areas below power lines were predicted as movement corridors; and (3) commercial and industrial clusters strongly disrupted connectivity. Spatiotemporal differences in connectivity were associated with time of day and coyote social status but not with climate and biological seasonality or coyote age and sex. Residential roads were pivotal in the temporal dynamism of connectivity. The maintenance and enhancement of plant structural complexity along key infrastructure (for example, highways, waterways, and parking lots) should be considered when managing connectivity corridors in cities.
保护野生动物的活动走廊对物种保护至关重要。城市规划通常旨在通过保护措施为动物创造活动走廊。然而,有关城市野生动物连通性的研究十分有限。在这里,我们利用加拿大多伦多市 27 只全球定位系统(GPS)领标郊狼的栖息地选择参数,跨时间尺度和人口特征动态评估了郊狼(Canis latrans)的连通性。栖息地选择模型考虑了人口密度、不透水面积、植被密度以及与不同线性特征的距离。结果表明:(1) 植被密集区是城市地区连通性的关键;(2) 河岸、铁路和电线下方区域被预测为移动走廊;(3) 商业和工业集群严重破坏了连通性。连通性的时空差异与一天中的时间和郊狼的社会地位有关,但与气候、生物季节性或郊狼的年龄和性别无关。居住区道路在连通性的时间动态变化中起着关键作用。在管理城市中的连通性走廊时,应考虑维护和提高主要基础设施(如公路、水道和停车场)沿线植物结构的复杂性。
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引用次数: 1
Dynamic connectivity assessment for a terrestrial predator in a metropolitan region 大都市地区陆生掠食者的动态连接性评估
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-02-12 DOI: 10.1002/fee.2633
Tiziana A Gelmi-Candusso, Andrew TM Chin, Connor A Thompson, Ashley AD McLaren, Tyler J Wheeldon, Brent R Patterson, Marie-Josée Fortin

Protecting wildlife movement corridors is critical for species conservation. Urban planning often aims to create corridors for animal movement through conservation initiatives. However, research on connectivity for urban wildlife is limited. Here, we assessed connectivity for coyotes (Canis latrans) dynamically across temporal scales and demographic traits, parametrized using the habitat selection of 27 global positioning system (GPS)-collared coyotes in the city of Toronto, Canada. The habitat selection models accounted for human population density, impervious area, vegetation density, and distance to different linear features. Results indicated that (1) vegetation-dense areas were key for connectivity in urban areas; (2) riverbanks, railways, and areas below power lines were predicted as movement corridors; and (3) commercial and industrial clusters strongly disrupted connectivity. Spatiotemporal differences in connectivity were associated with time of day and coyote social status but not with climate and biological seasonality or coyote age and sex. Residential roads were pivotal in the temporal dynamism of connectivity. The maintenance and enhancement of plant structural complexity along key infrastructure (for example, highways, waterways, and parking lots) should be considered when managing connectivity corridors in cities.

保护野生动物的活动走廊对物种保护至关重要。城市规划通常旨在通过保护措施为动物创造活动走廊。然而,有关城市野生动物连通性的研究十分有限。在这里,我们利用加拿大多伦多市 27 只全球定位系统(GPS)领标郊狼的栖息地选择参数,跨时间尺度和人口特征动态评估了郊狼(Canis latrans)的连通性。栖息地选择模型考虑了人口密度、不透水面积、植被密度以及与不同线性特征的距离。结果表明:(1) 植被密集区是城市地区连通性的关键;(2) 河岸、铁路和电线下方区域被预测为移动走廊;(3) 商业和工业集群严重破坏了连通性。连通性的时空差异与一天中的时间和郊狼的社会地位有关,但与气候、生物季节性或郊狼的年龄和性别无关。居住区道路在连通性的时间动态变化中起着关键作用。在管理城市中的连通性走廊时,应考虑维护和提高主要基础设施(如公路、水道和停车场)沿线植物结构的复杂性。
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引用次数: 0
Toward a predictable cask theory of species extinction assessment in the Anthropocene 人类世物种灭绝评估的可预测木桶理论
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-02-08 DOI: 10.1002/fee.2714
Youhua Chen, Qiang Dai, Jin Zhou, Danni Tang, De-Zhu Li, Fuwen Wei, Xiangjiang Zhan

Predicting species extinction is challenging in the context of climate change. The International Union for Conservation of Nature (IUCN) Red List of Threatened Species assesses species extinction risk by accounting for population size and global range of taxa, but this approach neglects the importance of genetic variability. Here, we propose a life strategy index (LSI) for predicting the extinction risks of species under climate change. The LSI is composed of three fundamental and independent components: namely, evolutionary potential, ecological potential, and colonization potential. The LSI constitutes a so-called “cask” theory of species extinction, which predicts that extinction likelihood is determined by the relative deficiency of any of the three components. The indicative variables used to construct the proposed LSI make the index applicable to assessments of (and predictions for) the extinction risk of different taxa in the face of climate change, which can inform management and conservation of imperiled species in a more scientific and precise manner.

在气候变化的背景下,预测物种灭绝具有挑战性。世界自然保护联盟(IUCN)濒危物种红色名录通过考虑分类群的种群数量和全球分布范围来评估物种灭绝风险,但这种方法忽视了遗传变异的重要性。在此,我们提出了一种预测气候变化下物种灭绝风险的生命策略指数(LSI)。生命策略指数由三个基本而独立的部分组成:即进化潜力、生态潜力和殖民潜力。LSI 构成了所谓的物种灭绝 "木桶 "理论,它预测物种灭绝的可能性取决于三个组成部分中任何一个的相对不足。用于构建拟议 LSI 的指示性变量使该指数适用于评估(和预测)不同类群在气候变化下的灭绝风险,从而以更加科学和精确的方式为濒危物种的管理和保护提供信息。
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引用次数: 0
Toward a predictable cask theory of species extinction assessment in the Anthropocene 人类世物种灭绝评估的可预测木桶理论
IF 10.3 1区 环境科学与生态学 Q1 Environmental Science Pub Date : 2024-02-08 DOI: 10.1002/fee.2714
Youhua Chen, Qiang Dai, Jin Zhou, Danni Tang, De‐Zhu Li, Fuwen Wei, Xiangjiang Zhan
Predicting species extinction is challenging in the context of climate change. The International Union for Conservation of Nature (IUCN) Red List of Threatened Species assesses species extinction risk by accounting for population size and global range of taxa, but this approach neglects the importance of genetic variability. Here, we propose a life strategy index (LSI) for predicting the extinction risks of species under climate change. The LSI is composed of three fundamental and independent components: namely, evolutionary potential, ecological potential, and colonization potential. The LSI constitutes a so‐called “cask” theory of species extinction, which predicts that extinction likelihood is determined by the relative deficiency of any of the three components. The indicative variables used to construct the proposed LSI make the index applicable to assessments of (and predictions for) the extinction risk of different taxa in the face of climate change, which can inform management and conservation of imperiled species in a more scientific and precise manner.
在气候变化的背景下,预测物种灭绝具有挑战性。世界自然保护联盟(IUCN)濒危物种红色名录通过考虑分类群的种群数量和全球分布范围来评估物种灭绝风险,但这种方法忽视了遗传变异的重要性。在此,我们提出了一种预测气候变化下物种灭绝风险的生命策略指数(LSI)。生命策略指数由三个基本而独立的部分组成:即进化潜力、生态潜力和殖民潜力。LSI 构成了所谓的物种灭绝 "木桶 "理论,它预测物种灭绝的可能性取决于三个组成部分中任何一个的相对不足。用于构建拟议 LSI 的指示性变量使该指数适用于评估(和预测)不同类群在气候变化下的灭绝风险,从而以更加科学和精确的方式为濒危物种的管理和保护提供信息。
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引用次数: 0
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