Natural zonal vegetation of the Azores Islands: characterization and potential distribution

被引:87
作者
Elias, Rui B. [1 ,2 ]
Gil, Artur [3 ,4 ]
Silva, Luis [5 ]
Fernandez-Palacios, Jose M. [6 ]
Azevedo, Eduardo B. [7 ,8 ]
Reis, Francisco [7 ,8 ]
机构
[1] Univ Acores, Fac Ciencias Agr & Ambiente, P-9700042 Angra Do Heroism, Acores, Portugal
[2] CE3C Ctr Ecol Evolut & Environm Changes, Azorean Biodivers Grp, P-9700042 Angra Do Heroism, Acores, Portugal
[3] CE3C Ctr Ecol Evolut & Environm Changes, Azorean Biodivers Grp, P-9501801 Ponta Delgada, Acores, Portugal
[4] Univ Acores, Fac Ciencias & Tecnol, P-9501801 Ponta Delgada, Acores, Portugal
[5] Univ Acores, Fac Ciencias & Tecnol, CIBIO Azores, InBIO,Res Network Biodivers & Evolutionary Biol, P-9501801 Ponta Delgada, Acores, Portugal
[6] Univ La Laguna, Inst Univ Enfermedades Trop & Salud Publ Canarias, Island Ecol & Biogeog Grp, Tenerife 38200, Canary Islands, Spain
[7] Univ Azores, CCMMG CITA A Ctr Climate Meteorol & Global Change, P-9700042 Angra Do Heroismo, Portugal
[8] Univ Acores, Fac Ciencias Agr & Ambiente, P-9700042 Angra Do Heroismo, Portugal
关键词
alpine scrublands; bioclimatic belts; community distribution modeling; diversity patterns; Laurel forests; montane cloud forests; potential natural vegetation; vegetation belts; TERCEIRA; REGENERATION; ARTHROPODS; ABUNDANCE; RICHNESS; REVISION; HABITAT; FORESTS; IMPACT;
D O I
10.1127/phyto/2016/0132
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
Aims: (1) To present a statistically based classification of Azorean natural zonal vegetation; (2) to characterize the main features of this vegetation and (3) to present the first model of its potential distribution in the nine Azorean Islands. Study area: Azores (Sao Miguel, Pico, Terceira and Flores islands). Methods: Information from 139 plots set up in the best preserved vegetation patches was used. Ward's agglomerative clustering method was applied in order to identify community types. Potential distribution of these community-level entities was modeled in relation to climatic predictors, using MAXENT. Results: Eight vegetation belts were identified: Erica-Morella Coastal Woodlands, Picconia-Morella Lowland Forests, Laurus Submontane Forests, Juniperus-Ilex Montane Forests, Juniperus Montane Woodlands, Calluna-Juniperus Altimontane Scrublands, Calluna-Erica Subalpine Scrublands and Calluna Alpine Scrublands. Modeling results suggest that Picconia-Morella and Laurus forests (Laurel forests) are the potential dominant vegetation in the Azores. With the possible exception of Juniperus woodlands, Pico could have all vegetation types, in contrast with Santa Maria, Graciosa and Corvo with only three. Conclusions: Most of Azorean natural vegetation has been transformed or degraded by human action, with a greater impact on Laurel forests. The best preserved vegetation belts are located above 600 m a.s.l., including Juniperus-Ilex Forests and Juniperus Woodlands, perhaps the only example of island montane cloud forests existing outside the tropics. In the present work, for the first time we used a statistical method to classify zonal vegetation, gave it a bioclimatic foundation and applied it to the whole archipelago, thus defining and describing the main vegetation belts of the Azores. This work also gives the first potential distribution maps of the zonal vegetation for each island. This information may be used for landscape planning and management, selection of sites and species for ecological restoration and evaluation of climate change effects.
引用
收藏
页码:107 / 123
页数:17
相关论文
共 50 条
[41]   SLAM Project-Long Term Ecological Study of the Impacts of Climate Change in the natural forest of Azores: I-the spiders from native forests of Terceira and Pico Islands (2012-2019) [J].
Costa, Ricardo ;
Borges, Paulo A., V .
BIODIVERSITY DATA JOURNAL, 2021, 9 :1-28
[42]   Holocene natural rhythms of vegetation and present potential ecology in the Western Chinese Loess Plateau [J].
Zou, Songbing ;
Cheng, Guodong ;
Xiao, Honglang ;
Xu, Baorong ;
Feng, Zhaodong .
QUATERNARY INTERNATIONAL, 2009, 194 :55-67
[43]   THE MAP OF POTENTIAL NATURAL VEGETATION AS A SOURCE OF KNOWLEDGE ON THE HOLOCENE HISTORY OF THE VISTULA RIVER VALLEY [J].
Matuszkiewicz, Jan Marek .
GEOGRAPHIA POLONICA, 2006, 79 (01) :95-111
[44]   Three methods for modelling potential natural vegetation (PNV) compared: A methodological case study from south-central Norway [J].
Hemsing, Lars Ostbye ;
Bryn, Anders .
NORSK GEOGRAFISK TIDSSKRIFT-NORWEGIAN JOURNAL OF GEOGRAPHY, 2012, 66 (01) :11-29
[45]   A VEGETATION-ECOLOGICAL APPROACH TO THE CLASSIFICATION AND EVALUATION OF POTENTIAL NATURAL VEGETATION OF THE FAGETEA CRENATAE REGION IN TOHOKU (NORTHERN HONSHU), JAPAN [J].
OHNO, K .
ECOLOGICAL RESEARCH, 1991, 6 (01) :29-49
[46]   High-Mountain Landscape Classification to Analyze Patterns of Land Use and Potential Natural Vegetation [J].
Theissen, Tim ;
Otte, Annette ;
Waldhardt, Rainer .
LAND, 2022, 11 (07)
[47]   Recent climatic trends in Castilla and Leon (Spain) and its possible influence on the potential natural vegetation [J].
del Rio, Sara ;
Herrero, Luis ;
Penas, Angel .
ACTA BOTANICA GALLICA, 2009, 156 (04) :625-636
[48]   Shift of potential natural vegetation against global climate change under historical, current and future scenarios [J].
Ren, Zhengchao ;
Zhu, Huazhong ;
Shi, Hua ;
Liu, Xiaoni .
RANGELAND JOURNAL, 2021, 43 (06) :309-319
[49]   The concepts of potential natural vegetation (PNV) and other abstractions (trying to pick up fish with wet hands) [J].
Carrion, Jose S. .
JOURNAL OF BIOGEOGRAPHY, 2010, 37 (11) :2214-2215
[50]   Numerical Study of the Urban Heat Island in Sendai City with Potential Natural Vegetation and the 1850s and 2000s Land-Use Data [J].
Vitanova, Lidia Lazarova ;
Kusaka, Hiroyuki ;
Van Quang Doan ;
Nishi, Akifumi .
JOURNAL OF THE METEOROLOGICAL SOCIETY OF JAPAN, 2019, 97 (01) :227-252