Habitat connectivity drives panda recovery

生物 濒危物种 栖息地 栖息地破坏 生境破碎化 人口 基因流 消光(光学矿物学) 生态学 有效人口规模 最小生存人口 恢复生态学 遗传多样性 古生物学 人口学 社会学
作者
Meng Wang,Guiming Wang,Guangping Huang,Andy J. Kouba,Ronald R. Swaisgood,Wenliang Zhou,Yibo Hu,Yonggang Nie,Fuwen Wei
出处
期刊:Current Biology [Elsevier BV]
卷期号:34 (17): 3894-3904.e3 被引量:1
标识
DOI:10.1016/j.cub.2024.07.037
摘要

Globally, the majority of habitat loss is irreversible, and most species will never recover their former ranges. We have learned a great deal about what leads to population decline and extinction, but less about recovery. The recently downlisted giant panda provides a unique opportunity to understand the mechanisms of species recovery. In our study, we estimate giant panda suitable habitats, population density, and gene flow across landscapes to fully investigate the direct and indirect ecological mechanisms underlying bold conservation strategies. We found that the Giant Panda National Survey has modestly but systematically underestimated population size. China's effort to mitigate anthropogenic disturbances was associated with increased panda population density through improving habitat quality and reducing habitat fragmentation. Enhanced landscape connectivity reduced inbreeding via gene flow but indirectly increased inbreeding temporarily due to high local panda density. Although the panda's recovery has been geographically uneven, we provide evidence for improving connectivity and gene flow resulting from conservation efforts. If these processes can be sustained and improved, the panda's path to recovery will be less encumbered by loss of genetic diversity, fostering hope that the present rate of recovery will not be stalled. Findings from this study will not only help guide future giant panda conservation management but also provide a model for how a more mechanistic examination of the genetic processes underlying species recovery can foster the development of more effective strategies for endangered species recovery.
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