Linked from
The 147 pages that link to Island biogeography, each with the reason it gives.
Invasive speciesRelated: Island communities often face heightened risks from introduced predators and competitors.
Habitat fragmentationRelated: Its island-area and isolation principles have been applied to habitat patches.
Seed dispersalRelated: Seed arrival is a key route by which isolated habitats gain plant species.
BiodiversityRelated: It explains why habitat size and isolation produce distinct patterns of species diversity.
Ecological nicheRelated: Island communities reveal how colonization and competition shape available ecological roles.
Adaptive radiationRelated: Isolation and limited colonization influence the opportunities and constraints on island radiations.
Gene flowRelated: Dispersal between islands links populations and influences colonization and genetic exchange.
EndemismRelated: Its framework connects isolation and colonization to the formation and persistence of island endemics.
Biological invasionRelated: Islands can be especially vulnerable when introduced predators or competitors encounter isolated communities.
Forest fragmentationRelated: Its area-and-isolation framework is often applied to forest patches, though the analogy has limits.
Lapita cultureRelated: Island environments shaped which plants and animals settlers could use or transport.
SquamataRelated: Island squamates provide examples of colonization, endemism, and evolutionary change.
MadagascarNarrower topic: It explains how distance from continents influences Madagascar’s wildlife.
Volcanic islandRelated: Volcanic islands offer natural records of colonization, isolation, and ecological change.
Founder effectRelated: Island colonization often begins with few founders, making founder effects especially relevant.
Pleistocene megafaunaRelated: Island populations reveal how isolation and human arrival shaped vulnerable megafauna.
Great American Biotic InterchangeRelated: South America's long isolation offers a continental-scale comparison for colonization theory.
EcologyBroader topic: It offers a specific model for ecological patterns in isolated habitats.
Alfred Russel WallaceRelated: Wallace’s island comparisons showed how barriers and dispersal produce distinct faunas.
Extinction debtRelated: Its framework helps explain delayed losses in isolated habitat patches that function like islands.
ArecaceaeRelated: Island palm endemism makes isolation central to understanding extinction risk.
MetapopulationRelated: Its ideas about isolation and colonization also inform habitat-patch networks.
HawaiʻiRelated: It helps explain Hawaiʻi’s high endemism and vulnerability to introduced species.
DispersalRelated: Immigration by dispersers is a central process in island species turnover.
Landscape ecologyRelated: Its ideas about area and isolation informed thinking about habitat patches in landscapes.
Wallace LineNarrower topic: Its principles help explain why deep channels preserved distinct faunas across nearby islands.
Coral TriangleRelated: The region’s many islands create varied patterns of isolation and species exchange.
Arctic foxRelated: Isolated Arctic islands reveal how dispersal across sea ice shapes fox populations.
Komodo dragonRelated: Isolation among Indonesian islands helps explain the dragon’s restricted native range.
Endemic speciesRelated: Islands often isolate populations and contain unusually high proportions of endemic species.
Island restorationNarrower topic: Isolation and limited area affect which species can recolonize after damaging pressures are removed.
WallaceaNarrower topic: Its principles help explain colonization and persistence across Wallacea’s islands.
Evolution of birdsRelated: Island isolation has repeatedly produced distinctive bird radiations and endemic species.
DefaunationRelated: Island faunas are especially vulnerable to introduced predators and other human pressures.
Fossil calibrationRelated: Island emergence can offer an independent time constraint for some divergences.
IslandNarrower topic: Island boundaries and distance from other land make isolation measurable.
Island gigantismNarrower topic: Its principles explain how isolation creates distinctive evolutionary settings for body-size change.
Island ruleNarrower topic: The island rule belongs to the broader study of biological patterns on islands.
Landscape connectivityRelated: Its account of isolation provides a comparison for habitat patches embedded in landscapes.
Cave ecologyCompared with: Its island model offers a comparison for isolated cave habitats, though caves differ sharply.
Oceanic islandRelated: Oceanic islands provide clear cases for testing how isolation shapes biodiversity.
FlightlessnessRelated: Island isolation and predator communities often alter the costs and benefits of flight.
GigantismNarrower topic: Its framework helps explain ecological conditions associated with island body-size evolution.
ParrotRelated: Island parrots, including New Zealand endemics, illustrate evolutionary effects of isolation.
Insular dwarfismNarrower topic: It explains the geographic isolation that makes insular evolution possible.
New World monkeyRelated: South America's long geographic isolation helped shape the distinctive platyrrhine radiation.
PhylogeographyRelated: Island lineages provide clear cases for testing colonization routes and isolation histories.
RatiteRelated: Several ratite lineages evolved on isolated landmasses, where distinctive forms could persist.
Wildlife habitatRelated: Its principles illuminate how patch size and isolation influence habitat communities.
American minkRelated: Island wildlife can be especially vulnerable when mink are introduced as new predators.