Linked from

The 17 pages that link to Hypsodonty, each with the reason it gives.

• RodentiaRelated: Continuous growth offsets the wear rodents’ incisors experience while gnawing.

• Dental batteryRelated: Tall crowns provide a long reserve of tooth material for the wear a grinding battery produces.

• Dental morphologyCompared with: It contrasts with low-crowned forms and shows how crown height varies among mammals.

• Evolution of the horseRelated: High-crowned teeth evolved in several horse lineages as abrasive diets and gritty habitats spread.

• PalaeotheriumRelated: Tooth-crown form helps distinguish feeding adaptations among Palaeotherium species.

• StegodonRelated: Tooth-crown form helps explain how some stegodonts processed tough vegetation.

• NotoungulataRelated: Many notoungulates evolved high-crowned teeth suited to abrasive diets.

• PalaeotheriidaeRelated: Variation in tooth-crown height helps distinguish feeding adaptations among palaeotheriids.

• ToxodonRelated: Toxodon’s high-crowned cheek teeth suited it to abrasive plant foods.

• ElasmotheriumRelated: Elasmotherium's high-crowned teeth fit feeding on abrasive vegetation.

• GerbillinaeRelated: Some gerbillines have high-crowned cheek teeth suited to abrasive foods.

• PlatybelodonRelated: Wear-resistant teeth could help proboscideans process abrasive vegetation.

• TeleocerasRelated: Tooth wear and crown form help reconstruct the feeding ecology of fossil rhinoceroses.

• AnoplotheriidaeCompared with: Comparing crown height clarifies how anoplotheriid teeth differed from those of many grazing mammals.

• EntelodontidaeRelated: Tooth wear and crown form help assess how entelodonts processed abrasive foods.

• MerycoidodontoideaRelated: Oreodont teeth vary in crown height, offering clues to feeding ecology.

• TaeniodontaRelated: High-crowned teeth occur in some taeniodonts and reflect distinctive feeding adaptations.