Ecological Modelling, ISSN 0304-3800, 11/2018, Volume 388, pp. 13 - 23
We have in this study analysed bird communities across Norway with a heterogeneous species abundance model, where dynamical parameters can vary among species....
Temporal community dynamics | Heterogeneous species abundance models | Over-dispersion | Environmental stochasticity | β-diversity | POPULATION | TEMPORAL-CHANGES | beta-diversity | ECOLOGY | ABUNDANCE | Case studies | Birds | Analysis | Biological diversity
Temporal community dynamics | Heterogeneous species abundance models | Over-dispersion | Environmental stochasticity | β-diversity | POPULATION | TEMPORAL-CHANGES | beta-diversity | ECOLOGY | ABUNDANCE | Case studies | Birds | Analysis | Biological diversity
Journal Article
2011, 1st ed., ISBN 1444342592, ix, 300
Conservation of Tropical Birds has been written by four conservation biologists whose expertise spans all the tropical regions of the world. It is the first...
Global environmental change | Conservation | Environmental aspects | Birds | Biotic communities | Climatic changes | Adaptation (Biology) | Case studies | Tropics
Global environmental change | Conservation | Environmental aspects | Birds | Biotic communities | Climatic changes | Adaptation (Biology) | Case studies | Tropics
Book
1989, Cambridge Studies in Ecology., ISBN 0521426367, 2 v. : ill., maps.
Book
2012, 1, ISBN 9780801440793, cm.
Until recently, surprisingly little has been known about the biology and behavior of tropical forest raptors, including such basic aspects as diets, breeding...
Birds of prey | Guatemala | Biological Sciences | Parque Nacional Tikal | Zoology | Birds
Birds of prey | Guatemala | Biological Sciences | Parque Nacional Tikal | Zoology | Birds
Book
Proceedings of the National Academy of Sciences of the United States of America, ISSN 0027-8424, 5/2015, Volume 112, Issue 20, pp. E2648 - E2657
Food availability is a primary driver of avian population regulation. However, few studies have considered the effects of what is essentially a massive...
Human interactions | Wildlife feeding | Garden birds | Avian ecology | Community composition | NEW-ZEALAND | MULTIDISCIPLINARY SCIENCES | garden birds | URBANIZATION | avian ecology | wildlife feeding | BREEDING BIRDS | GREAT TIT | human interactions | FEEDERS | community composition | FOOD SUPPLEMENTATION | DIVERSITY | WINTER | AVIAN ASSEMBLAGES | WILD BIRDS | New Zealand | Animals | Analysis of Variance | Biota | Humans | Population Density | Introduced Species | Cities | Feeding Methods - veterinary | Birds - physiology | Environmental aspects | Physiological aspects | Birds | Feeding methods | Research | Habitat destruction | Biological Sciences | PNAS Plus
Human interactions | Wildlife feeding | Garden birds | Avian ecology | Community composition | NEW-ZEALAND | MULTIDISCIPLINARY SCIENCES | garden birds | URBANIZATION | avian ecology | wildlife feeding | BREEDING BIRDS | GREAT TIT | human interactions | FEEDERS | community composition | FOOD SUPPLEMENTATION | DIVERSITY | WINTER | AVIAN ASSEMBLAGES | WILD BIRDS | New Zealand | Animals | Analysis of Variance | Biota | Humans | Population Density | Introduced Species | Cities | Feeding Methods - veterinary | Birds - physiology | Environmental aspects | Physiological aspects | Birds | Feeding methods | Research | Habitat destruction | Biological Sciences | PNAS Plus
Journal Article
Proceedings of the National Academy of Sciences of the United States of America, ISSN 0027-8424, 11/2009, Volume 106, Issue Supplement 2, pp. 19673 - 19678
How biotic interactions, current and historical environment, and biogeographic barriers determine community structure is a fundamental question in ecology and...
Community structure | Sustainable communities | Biological taxonomies | Hummingbirds | Synecology | Ecological genetics | Phylogenetics | Lowlands | Birds | Topographical elevation | Colloquium Papers | Biogeography | Phylogenetic β diversity | Andes mountains | Environmental gradients | Andes Mountains | biogeography | BETA DIVERSITY | MULTIDISCIPLINARY SCIENCES | RAIN-FOREST | PATTERNS | phylogenetic beta diversity | ELEVATIONAL ZONATION | ORGANIZATION | ECUADOR | ECOLOGY | TROCHILIDAE | environmental gradients | BIRDS | HISTORICAL DIVERSIFICATION | Ecuador | Animals | Tropical Climate | Molecular Sequence Data | Phylogeny | Biodiversity | Birds - physiology | Research | Identification and classification | Papers | phylogenetic β diversity
Community structure | Sustainable communities | Biological taxonomies | Hummingbirds | Synecology | Ecological genetics | Phylogenetics | Lowlands | Birds | Topographical elevation | Colloquium Papers | Biogeography | Phylogenetic β diversity | Andes mountains | Environmental gradients | Andes Mountains | biogeography | BETA DIVERSITY | MULTIDISCIPLINARY SCIENCES | RAIN-FOREST | PATTERNS | phylogenetic beta diversity | ELEVATIONAL ZONATION | ORGANIZATION | ECUADOR | ECOLOGY | TROCHILIDAE | environmental gradients | BIRDS | HISTORICAL DIVERSIFICATION | Ecuador | Animals | Tropical Climate | Molecular Sequence Data | Phylogeny | Biodiversity | Birds - physiology | Research | Identification and classification | Papers | phylogenetic β diversity
Journal Article
Book
1987, Studies in avian biology, ISBN 9780935868364, Volume no. 11, iv, 74
Book
Ecological Applications, ISSN 1051-0761, 09/2019, Volume 29, Issue 6, pp. e01953 - n/a
Although species‐specific approaches are necessary to understand the dynamics of individual species composing a community, they do not offer a framework for...
avian malaria | conservation | modeling | Hawaiian forest birds | community‐level response to management | reforestation | rat predation | simulation study | climate change | BIODIVERSITY | COLONIZATION | FUTURE | ENVIRONMENTAL SCIENCES | MODELS | ECOLOGY | community-level response to management | Vector-borne diseases | Forests | Wildlife conservation | Malaria | Endangered species | Computer simulation | Habitats | Conservation | Health risks | Birds | Community relations | Management | Disease control | Endangered & extinct species | Climate change | Weighting | Disease transmission | Simulation | Wildlife | Wildlife refuges | Indigenous species | Predation | Wildlife management | Wildlife habitats | Index Medicus
avian malaria | conservation | modeling | Hawaiian forest birds | community‐level response to management | reforestation | rat predation | simulation study | climate change | BIODIVERSITY | COLONIZATION | FUTURE | ENVIRONMENTAL SCIENCES | MODELS | ECOLOGY | community-level response to management | Vector-borne diseases | Forests | Wildlife conservation | Malaria | Endangered species | Computer simulation | Habitats | Conservation | Health risks | Birds | Community relations | Management | Disease control | Endangered & extinct species | Climate change | Weighting | Disease transmission | Simulation | Wildlife | Wildlife refuges | Indigenous species | Predation | Wildlife management | Wildlife habitats | Index Medicus
Journal Article
Nature, ISSN 0028-0836, 12/2016, Volume 540, Issue 7632, pp. 266 - 269
Land-use intensification is a major driver of biodiversity loss(1,2). Alongside reductions in local species diversity, biotic homogenization at larger spatial...
SPECIES-DIVERSITY | BIODIVERSITY | BIOTIC HOMOGENIZATION | PLANT | FERTILIZATION | MICROBIAL COMMUNITIES | MULTIDISCIPLINARY SCIENCES | BETA-DIVERSITY | USE INTENSITY | ECHOLOCATION | FOREST | Grassland | Lichens | Datasets as Topic | Species Specificity | Soil Microbiology | Birds | Plants | Biodiversity | Fungi | Food Chain | Animals | Arthropods | Agriculture | Conservation of Natural Resources | Human Activities | Bryopsida | Chiroptera | Germany | Grasslands | Human beings | Environmental aspects | Influence on nature | Research | Ecological research | Land use | Homogenization | Pathogens | Ecosystems | Biological diversity
SPECIES-DIVERSITY | BIODIVERSITY | BIOTIC HOMOGENIZATION | PLANT | FERTILIZATION | MICROBIAL COMMUNITIES | MULTIDISCIPLINARY SCIENCES | BETA-DIVERSITY | USE INTENSITY | ECHOLOCATION | FOREST | Grassland | Lichens | Datasets as Topic | Species Specificity | Soil Microbiology | Birds | Plants | Biodiversity | Fungi | Food Chain | Animals | Arthropods | Agriculture | Conservation of Natural Resources | Human Activities | Bryopsida | Chiroptera | Germany | Grasslands | Human beings | Environmental aspects | Influence on nature | Research | Ecological research | Land use | Homogenization | Pathogens | Ecosystems | Biological diversity
Journal Article
1986, Studies in avian biology, Volume no. 9, xii, 431
Book
Global Change Biology, ISSN 1354-1013, 01/2018, Volume 24, Issue 1, pp. 338 - 349
Earth is experiencing multiple global changes that will, together, determine the fate of many species. Yet, how biological communities respond to concurrent...
tropical | homogenization | environmental gradient | bird | multiple stressors | turnover | agro‐ecology | climate change | agro-ecology | BIODIVERSITY | VEGETATION STRUCTURE | RICHNESS | COMPONENTS | PATTERNS | DISSIMILARITY | BIOTIC HOMOGENIZATION | ENVIRONMENTAL SCIENCES | ECOLOGY | LAND-USE INTENSIFICATION | HABITAT CONVERSION | BIODIVERSITY CONSERVATION
tropical | homogenization | environmental gradient | bird | multiple stressors | turnover | agro‐ecology | climate change | agro-ecology | BIODIVERSITY | VEGETATION STRUCTURE | RICHNESS | COMPONENTS | PATTERNS | DISSIMILARITY | BIOTIC HOMOGENIZATION | ENVIRONMENTAL SCIENCES | ECOLOGY | LAND-USE INTENSIFICATION | HABITAT CONVERSION | BIODIVERSITY CONSERVATION
Journal Article
1921, Farmers' bulletin / United States Department of Agriculture, Volume 1239, 13, [1]
Book
BioScience, ISSN 0006-3568, 2005, Volume 55, Issue 5, pp. 399 - 407
Abstract Human activities dramatically change the abundance, diversity, and composition of species. However, little is known about how the most intense human...
food webs | community | urban ecosystems | species composition | trophic dynamics | OVERVIEW ARTICLES | Predators | Urban areas | Metropolitan areas | Birds | Food webs | Urban habitats | Deserts | Cities | Plants | Herbivores | Urban ecosystems | Trophic dynamics | Species composition | Community | INTERSPECIFIC COMPETITION | PREDATION | URBANIZATION | FRAGMENTATION | ECOLOGICAL-SYSTEMS | TOP-DOWN | HABITAT | BIOLOGY | LAND-USE | ECOSYSTEMS | FIELD EXPERIMENTS | Predation | Food chains | Ecosystems | Biological diversity
food webs | community | urban ecosystems | species composition | trophic dynamics | OVERVIEW ARTICLES | Predators | Urban areas | Metropolitan areas | Birds | Food webs | Urban habitats | Deserts | Cities | Plants | Herbivores | Urban ecosystems | Trophic dynamics | Species composition | Community | INTERSPECIFIC COMPETITION | PREDATION | URBANIZATION | FRAGMENTATION | ECOLOGICAL-SYSTEMS | TOP-DOWN | HABITAT | BIOLOGY | LAND-USE | ECOSYSTEMS | FIELD EXPERIMENTS | Predation | Food chains | Ecosystems | Biological diversity
Journal Article