Linked from

The 89 pages that link to Biogeography, each with the reason it gives.

• Plate tectonicsRelated: Moving continents explained the matching fossils and disjoint distributions Wegener cited.

• Natural historyRelated: Records of where organisms occur provide evidence for distribution patterns.

• PaleoecologyRelated: Fossil distributions show how ranges shifted with climate and environmental change.

• PaleobiologyRelated: Fossil locations track how lineages and ecosystems shifted across continents.

• Alexander von HumboldtRelated: Humboldt’s comparisons of plants across regions helped establish this field.

• EcologyRelated: It explains why ecological patterns differ among places.

• Köppen climate classificationRelated: Climate classes help describe broad environmental conditions associated with regional vegetation.

• Landscape ecologyRelated: Biogeography shares a spatial focus but commonly emphasizes distributions across broader regions and history.

• Common descentRelated: Species distributions can preserve clues about the locations and movements of ancestral lineages.

• Ernst HaeckelRelated: Haeckel’s observations of marine life and species distributions informed his evolutionary thinking.

• Physical geographyRelated: It traces how organisms and ecological communities vary across places.

• CryptozoologyRelated: A creature’s proposed range can be checked against habitat and known species distributions.

• Cave ecologyRelated: Cave species' isolated distributions raise questions about dispersal and historical connections.

• CladeRelated: Clade relationships can reveal dispersal, isolation, and the history of regions.

• Bayesian phylogeneticsRelated: Bayesian phylogenetic models can estimate ancestral ranges and historical dispersal from dated trees.

• PhylogeographyRelated: Phylogeography adds genetic ancestry to biogeographic accounts of distributions.

• PoikilothermyRelated: Temperature dependence helps shape where poikilothermic species can persist.

• Thermal ecologyRelated: Temperature helps set the geographic limits and patterns of species distributions.

• Regional geographyRelated: Species and ecosystem distributions supply evidence about regional environments.

• ZoologyRelated: Animal distributions help explain dispersal, isolation, and environmental adaptation.

• Bird-of-paradiseRelated: Island distributions help explain the family’s diversification and range.

• Earth scienceRelated: It connects Earth’s environments and history with where life occurs.

• Environmental microbiologyRelated: It frames questions about how microbial communities vary among places and environments.

• Scientific expeditionRelated: Expedition observations across regions provide evidence for patterns of species distribution.

• VegetationRelated: Biogeographic patterns help explain where different vegetation occurs.

• JuncaceaeRelated: Rushes occur on every continent, with species distributions shaped by habitat and evolutionary history.

• VaranidaeRelated: The family's spread across Africa, Asia, and Australia raises questions about dispersal and isolation.

• AmphisbaeniaRelated: Their varied distribution across the Americas, Africa, and parts of Europe raises questions about dispersal and history.

• Insect collectingRelated: Specimen labels reveal where species occur and how their ranges change.

• ZingiberalesRelated: The order’s present distributions reflect dispersal and diversification across tropical regions.

• HalobatesRelated: Halobates species occupy tropical and subtropical seas, offering clues to dispersal and ocean barriers.

• IguanidaeRelated: Iguanid distributions across the Americas and islands bear on their evolutionary history.

• PeninsulaRelated: Peninsulas can connect habitats while their coastlines limit movement.

• Albert GüntherRelated: Günther’s regional accounts of fishes and reptiles connected classification with distribution.

• AsteralesRelated: Asterales’ worldwide range and regional family patterns are biogeographic evidence.

• New World quailRelated: It helps explain the family’s diversification across the varied landscapes of the Americas.

• SchizomidaRelated: Their restricted ranges help reveal patterns of tropical diversification and endemism.

• Eugenius WarmingRelated: Warming’s work linked vegetation patterns to climate and geography.

• Lorentz National ParkRelated: Lorentz’s varied elevations offer a natural setting for studying species distributions.

• PalpigradiRelated: Fragmentary records make the global distribution and dispersal history of palpigrades difficult to reconstruct.

• PrimulaRelated: The genus’s Northern Hemisphere distribution reflects its evolutionary history and dispersal.

• RhynchosauriaRelated: Rhynchosaur fossil distributions track changing connections among Triassic land regions.

• Wladimir KöppenRelated: Köppen’s early classifications linked climate boundaries with the distribution of vegetation.

• MelastomataceaeRelated: The family's distribution across tropical regions raises questions about dispersal and diversification.

• UnenlagiinaeRelated: The clade’s southern fossil distribution informs hypotheses about dinosaur dispersal and isolation.

• Walter Baldwin SpencerRelated: Spencer’s zoological research in Australia addressed how animal life was distributed across the continent.

• Armen TakhtajanRelated: His account of flowering-plant dispersal linked evolutionary history to geographic patterns.

• BioclimatologyRelated: It investigates distribution patterns that climatic conditions help explain.

• History of ecologyRelated: Questions about species distributions helped establish ecology’s spatial foundations.

• Johann Jakob HeckelRelated: Regional fish records such as Heckel’s inform accounts of species distributions.