Linked from

The 46 pages that link to Locomotion, each with the reason it gives.

• TetrapodRelated: Tetrapod lineages transformed limb-based movement into walking, running, swimming, and flight.

• PrecocialityRelated: Mobility is central to precociality, but its timing and effectiveness vary among species.

• SarcopterygiiRelated: Lobed fins could provide propulsion and support in water before limbs enabled sustained movement on land.

• BilateriaRelated: A front–back axis supports directed movement, a prominent mode of life among bilaterians.

• Postcranial skeletonRelated: Limb and trunk anatomy constrains how an animal moves.

• ScincidaeRelated: Limbed, limbless, and short-legged skinks use different forms of locomotion.

• VaranidaeRelated: Many monitor lizards are active, capable runners that pursue prey or escape threats.

• DinocephaliaRelated: Limb and body proportions inform reconstructions of dinocephalian movement on land.

• CoryphodonRelated: Its robust limbs suggest a heavy-bodied animal adapted for terrestrial movement.

• AmphicyonidaeRelated: Limb proportions and joint surfaces help reconstruct how amphicyonids moved.

• Human skeletonRelated: Bones provide levers and joints provide axes for muscle-driven locomotion.

• MammalogyRelated: Comparing movement links mammal anatomy to habitat and behavior.

• AnthracotheriidaeRelated: Limb proportions help test whether particular anthracotheres were terrestrial, amphibious, or both.

• MacraucheniaRelated: Macrauchenia’s limb proportions are used to assess how it moved across open terrain.

• NotoungulataRelated: Limb bones reveal how different notoungulates moved across their environments.

• PalaeotheriidaeRelated: Limb proportions and toe structure offer evidence about palaeotheriid movement and habitat.

• SparassodontaRelated: Limb proportions in sparassodont fossils help reconstruct terrestrial movement and hunting styles.

• ArizonasaurusRelated: Arizonasaurus’s limb and hip anatomy informs estimates of how it moved.

• ChalicotheriumRelated: Its limb proportions inform hypotheses about how Chalicotherium moved.

• DaeodonRelated: Daeodon's long limbs suggest it could travel efficiently across open Miocene landscapes.

• On the SoulRelated: The treatise asks how appetite and thought move animals without moving themselves.

• PareiasauriaRelated: Their sprawling limbs and heavy bodies constrain reconstructions of how they moved.

• ScutosaurusRelated: Its sprawling limbs supported a heavy body close to the ground.

• SimosuchusRelated: Postcranial anatomy helps test whether Simosuchus moved mainly on land rather than like a modern crocodile.

• Tree frogRelated: Tree frogs combine climbing, walking, and jumping to move through layered vegetation.

• AnoplotheriidaeRelated: Limb proportions and foot structure inform reconstructions of how anoplotheriids moved.

• CainotheriidaeRelated: Limb proportions and foot bones inform reconstructions of cainotheriid movement.

• Energy utilizationRelated: Muscle contraction and other movement mechanisms consume chemical energy.

• EntelodontidaeRelated: Entelodont limb fossils inform estimates of their gait, speed, and terrestrial habits.

• MicrosauriaRelated: Differences in limb and trunk anatomy suggest varied microsaur modes of movement.