Zoogeography Course

Lesson 1 • Historical Development of the Discipline

Traces zoogeography from early naturalist observations to modern quantitative approaches. Students understand how foundational thinkers shaped current frameworks.

Lesson 2 • Major Zoogeographic Regions of the World

Presents the classical division of Earth into faunal regions based on vertebrate distributions. Students map these regions and identify their characteristic taxa.

Lesson 3 • Defining Zoogeography and Its Scope

Zoogeography is defined as the study of animal distribution across space and time. This section anchors the course by distinguishing it from related fields like ecology and systematics.

Lesson 1 • Plate Tectonics and Continental Drift

Explains how continental movement created and severed land connections over geological time. Students link tectonic events to vicariance and dispersal opportunities.

Lesson 2 • Fossil Record as Distributional Evidence

Uses fossil occurrences to reconstruct historical ranges and migration routes. Students evaluate the strengths and biases of paleontological data in zoogeography.

Lesson 3 • Paleoclimate and Faunal Change

Examines how past climatic shifts, including ice ages and arid periods, restructured animal communities. Students connect paleoclimate records to distributional evidence.

Lesson 1 • Founder Effects and Island Colonisation

Explores how small founding populations establish new ranges and diverge genetically. Students connect colonisation genetics to distributional and taxonomic outcomes.

Lesson 2 • Range Expansion and Contraction

Describes the dynamic nature of species ranges in response to environmental change. Students model how ranges shift over ecological and evolutionary timescales.

Lesson 3 • Barriers and Filters in Animal Movement

Classifies geographic features as corridors, filters, or sweepstakes routes based on permeability. Students predict which taxa can cross each barrier type.

Lesson 4 • Vicariance and Barrier Formation

Defines vicariance as range fragmentation by newly formed barriers. Students distinguish vicariant from dispersal-based explanations using distributional and phylogenetic data.

Lesson 1 • Adaptive Radiation on Islands

Examines how ecological opportunity on islands drives rapid diversification. Students analyse classic radiations to identify ecological and genetic drivers.

Lesson 2 • Island Endemism and Extinction Risk

Quantifies the disproportionate endemism and vulnerability of island faunas. Students assess extinction risk factors specific to island-dwelling species.

Lesson 3 • Applying Island Theory to Conservation

Translates island biogeography principles into habitat patch and reserve design. Students evaluate how fragmentation mimics island dynamics in terrestrial landscapes.

Lesson 4 • Theory of Island Biogeography

Presents the MacArthur-Wilson equilibrium model of immigration and extinction rates. Students use the model to predict species number from island area and distance.

Lesson 1 • Climate and Physiological Tolerances

Connects temperature, precipitation, and seasonality to species range limits. Students apply tolerance curves to predict where species can persist.

Lesson 2 • Habitat Requirements and Niche Concepts

Defines the fundamental and realized niche and their role in limiting distributions. Students distinguish habitat requirements from actual occupied ranges.

Lesson 3 • Biotic Interactions and Range Limits

Examines how competition, predation, and mutualism shape range boundaries. Students evaluate evidence that biotic interactions constrain distributions.

Lesson 4 • Productivity, Resources, and Diversity Gradients

Links primary productivity and resource heterogeneity to species richness patterns. Students analyze latitudinal and altitudinal diversity gradients.

Lesson 1 • Analytical Methods in Phylogeography

Introduces haplotype networks, nested clade analysis, and coalescent-based methods. Students select appropriate tools for different distributional and demographic questions.

Lesson 2 • Detecting Refugia and Expansion Routes

Uses genetic diversity patterns to locate glacial refugia and post-glacial colonization paths. Students interpret high-diversity centers and star-shaped haplotype networks.

Lesson 3 • Molecular Markers and Data Collection

Reviews mitochondrial, nuclear, and genomic markers used in zoogeographic studies. Students evaluate marker choice based on mutation rate and inheritance mode.

Lesson 4 • Speciation and Lineage Divergence

Connects geographic isolation to lineage divergence and speciation using molecular clocks. Students date divergence events and correlate them with geological or climatic history.

Lesson 1 • Cluster Analysis and Regionalization

Uses multivariate clustering to define faunal regions from species composition data. Students compare algorithmically derived regions to classical zoogeographic schemes.

Lesson 2 • Species Distribution Modeling Fundamentals

Introduces correlative models that relate occurrence records to environmental variables. Students build and evaluate models using standard algorithms and occurrence data.

Lesson 3 • Diversity Indices and Turnover Metrics

Quantifies alpha, beta, and gamma diversity and measures faunal turnover across gradients. Students calculate and interpret diversity partitioning in zoogeographic contexts.

Lesson 4 • Projecting Distributions Under Future Scenarios

Transfers calibrated distribution models to future climate projections to forecast range shifts. Students assess model uncertainty and communicate probabilistic range change outcomes.

Lesson 1 • Climate Change and Faunal Range Shifts

Documents observed and projected range shifts driven by anthropogenic climate change. Students assess vulnerability of species and communities to distributional disruption.

Lesson 2 • Biodiversity Hotspots and Priority Areas

Identifies regions of exceptional endemism and threat using zoogeographic criteria. Students evaluate hotspot frameworks and their application to conservation investment.

Lesson 3 • Invasive Species and Range Expansion

Analyzes the zoogeographic drivers and consequences of biological invasions. Students predict invasion risk and map potential spread using distribution models.

Lesson 4 • Zoogeography in Policy and Management

Connects distributional science to biodiversity agreements, protected area networks, and species recovery plans. Students translate zoogeographic findings into actionable management recommendations.