Page 124 - 《广西植物》2022年第3期
P. 124

4 6 8                                 广  西  植  物                                         42 卷
     and daily climate variation have opposite effects on species  [J]. Trends Ecol Evolꎬ 23: 141-148.
     elevational range size [ J]. Scienceꎬ 351 ( 6280): 1437  LI CHꎬ 1997. The distribution of evergreen broad ̄leaves forests
     -1439.                                            in East Asia [J]. Nat Resoucꎬ (2): 36 - 45. [ 李 昌 华ꎬ
   CHEN HYꎬ HUANG CJꎬ 1978. Flora Reipublicae Popularis  1997. 亚洲东部常绿阔叶林的分布 [J]. 自然资源ꎬ (2):
     Sinicae ( Vol. 22) [ M]. Beijing: Science Press: 315 -  36-45.]
     317. [陈焕镛ꎬ 黄成就ꎬ 1978. 中国植物志(第 22 卷)             LI Jꎬ CAO HLꎬ LIAN JYꎬ et al.ꎬ 2006. Study on classification
     [M]. 北京: 科学出版社: 315-317]                          and geographical distribution of Castanopsis hystrix forest in
   CHIU CAꎬ CHIOU CRꎬ LIN JRꎬ et al.ꎬ 2014. Coldness index  China [J]. Guihaiaꎬ 26(1): 22-27. [李静ꎬ 曹洪麟ꎬ 练琚
     does not indicate the upper limit of evergreen broad ̄leaved  蕍ꎬ 等ꎬ 2006. 中国刺栲林的分类与分布初探 [J]. 广西
     forest on a subtropical island [J]. J For Resꎬ 19: 115-124.  植物ꎬ 26(1): 22-27.]
   DING SYꎬ SONG YCꎬ 2004. Research advances in vegetation  LI Yꎬ 2019. Species composition and geographical differentiation
     dynamic of evergreen broad ̄leaved forest [J]. Acta Ecol Sinꎬ  of the Fagaceae community in subtropical evergreen broad ̄
     (8): 1769-1779. [丁圣彦ꎬ 宋永昌ꎬ 2004. 常绿阔叶林植           leaved forest in China [ D ]. Hefei: Anhui Agricultural
     被动态研究进展 [J]. 生态学报ꎬ (8): 1769-1779.]               Univeristy. [李缓ꎬ 2019. 中国亚热带常绿阔叶林壳斗科
   DUNMEI Lꎬ JIANGSHAN Lꎬ HELENCE Cꎬ et al.ꎬ 2012.     群落的物种组成及其地理分异 [D]. 合肥: 安徽农业
     Topographic  variation  in  aboveground  biomass  in  a  大学.]
     subtropical evergreen broad ̄Leaved forest in China [ J].  LIU BBꎬ LOU LHꎬ LIU GYꎬ 2013. A floristic analysis of
     PLoS ONEꎬ 7(10): e48244.                          Fagaceae in Zhejiang Provinceꎬ China [J]. J Zhejiang A & F
   ELITH Jꎬ LEATHWICK JRꎬ 2009. Species distribution models:  Univꎬ 30 (5): 698 - 705. [ 刘 彬 彬ꎬ 楼 炉 焕ꎬ 刘 广 宁ꎬ
     ecological explanation and prediction across space and time  2013. 浙江省壳斗科植物区系特征分析 [J]. 浙江农林大
     [J]. Ann Rev Ecol Evol Systꎬ 40: 677-697.         学学报ꎬ 30(5): 698-705.]
   ELSEN PRꎬ MONAHAN     WBꎬ MERENLENDER      AMꎬ    LIU YMꎬ ZHOU SDꎬ XIE DFꎬ et al.ꎬ 2018. Potential distribution
     2018. Global patterns of protection of elevational gradients  of Fritillaria unibracteata predicted by the MaxEnt model
     in mountain ranges [ J]. Proc Natl Acad Sci USAꎬ 115:  [J]. Guihaiaꎬ 38(3): 352-360. [刘艳梅ꎬ 周颂东ꎬ 谢登峰ꎬ
     6004-6009.                                        等ꎬ 2018. 基于最大熵模型(MaxEnt)预测暗紫贝母的潜在
   ERNAKOVICH JGꎬ HOPPING KAꎬ BERDANIER ABꎬ et al.ꎬ    分布 [J]. 广西植物ꎬ 38(3): 352-360.]
     2014. Predicted responses of arctic and alpine ecosystems to  LONG JSꎬ TANG MPꎬ CHEN GSꎬ 2021. Influence of strata ̄
     altered seasonality under climate change [J]. Global Chang  specific forest structural features on the regeneration of the
     Biolꎬ 20(10): 3256- 3269.                         evergreen broad ̄leaved forest in Tianmu Mountain [J]. PLoS
   FANG JYꎬ SONG YCꎬ LIU HYꎬ et al.ꎬ 2002. Vegetation ̄  ONEꎬ 16(2): e0247339.
     climate relationship and its application in the division of  LUO Yꎬ ZHOU ZKꎬ 2001. Phytogeograph of Quercus subg.
     vegetation zone in China [J]. J Integr Plant Biolꎬ 44(9):  Cyclobalanopsis [J]. Plant Diversꎬ 23(1): 1-16. [罗艳ꎬ
     1105-1122.                                        周浙昆ꎬ 2001. 青冈亚属植物的地理分布 [J]. 植物分类
   FANG JYꎬ YODA Kꎬ 1991. Climate and vegetation in China  与资源学报ꎬ 23(1): 1-16.]
     V. Effect of climatic factors on the upper limit of distribution  MIGUEL Bꎬ ARAUJO RGꎬ PEARSON WTꎬ et al.ꎬ 2010.
     of evergreen broadleaf forest [J]. Ecol Resꎬ 6: 113-125.  Validation of species ̄climate impact models under climate
   GE JLꎬ BERG Bꎬ XIE ZQꎬ 2019. Climatic seasonality is linked to  change [J]. Global Change Biolꎬ 11(9): 1504-1513.
     the occurrence of the mixed evergreen and deciduous broad ̄  NI Jꎬ SONG YCꎬ 1997. Relationships between geographical
     leaved forests in China [J]. Ecosphereꎬ 10(9): e02862.  distribution of Cyclobalanopsis glauca and climate in China
   GE JLꎬ XIE ZQꎬ 2017. Geographical and climatic gradients of  [J]. Acta Bot Sinꎬ 39(5): 451 - 460. [ 倪健ꎬ 宋永昌ꎬ
     evergreen versus deciduous broadleaved tree species in  1997. 中国青冈的地理分布与气候的关系 [J]. 植物学报ꎬ
     subtropical China: implications for the definition of the  39(5): 451-460.]
     mixed forest [J]. Ecol Evolꎬ 7: 3636-3644.      PEARSON RGꎬ RAXWORTHY CJꎬ NAKAMURA Mꎬ et al.ꎬ
   GRÜNIG Mꎬ BEERLI Nꎬ BALLESTROS ̄MEJIA Lꎬ et al.ꎬ     2007. Predicting species distributions from small numbers of
     2017. How climatic variability is linked to the spatial  occurrence records: a test case using cryptic geckos in
     distribution of range sizes: seasonality versus climate change  Madagascar [J]. J Biogeogrꎬ 34(1): 102-117.
     velocity in sphingid moths [J]. J Biogeogrꎬ 44: 2441-2450.  PHILLIPS SJꎬ 2008. Transfer abilityꎬ sample selection bias and
   HIJMANS RJꎬ CAMERON SEꎬ PARRA JLꎬ et al.ꎬ 2005. Very  background data in presence ̄only modelling: A response to
     high resolution interpolated climate surfaces for global land  Peterson [J]. Ecographyꎬ 31: 272-278.
     areas [J]. Int J Climatolꎬ 25: 1965-1978.       PHILLIPS SJꎬ ANDERSON RPꎬ SCHAPIRE REꎬ 2006.
   KOZAK KHꎬ GRAHAM CHꎬ WIENS JJꎬ 2008. Integrating    Maximum   entropy  modeling  of  species  geographic
     GIS ̄based environmental data into evolutionary biology  distributions [J]. Ecol Modelꎬ 190: 231-259.
   119   120   121   122   123   124   125   126   127   128   129