Linked from

The 37 pages that link to Molar, each with the reason it gives.

• Canine toothRelated: Molars complete the cheek-tooth region behind the canine.

• CarnassialNarrower topic: The lower carnassial is usually the first molar.

• Dental formulaRelated: Molar counts complete the tooth-class sequence recorded in a formula.

• IncisorCompared with: Molars process food with broad surfaces rather than incisor cutting edges.

• ProboscideaRelated: Proboscidean molars reveal changes in diet and adaptation to grazing.

• ToothBroader topic: Its large chewing surface crushes and grinds food.

• Heterodont dentitionBroader topic: Molars provide the broad grinding surfaces that complement sharper tooth types.

• Mammalian dentitionBroader topic: Molar form supplies much of the grinding surface in mammalian jaws.

• DiprotodonRelated: Its large molars processed tough vegetation.

• MorganucodonNarrower topic: Morganucodon’s distinctive molars provide evidence about its diet and chewing.

• Paranthropus boiseiBroader topic: Enlarged molars dominate the species’ distinctive chewing dentition.

• DentitionBroader topic: Molar number and form strongly shape an organism’s dental pattern.

• MammaliaformesRelated: Complex molars provide key anatomical characters for comparing mammaliaform lineages.

• Dental batteryBroader topic: Molar crowns supply much of the grinding area in many dental batteries.

• Dental morphologyBroader topic: Its broad, cusped crown contrasts with the narrower front teeth.

• OxyaenidaeRelated: The shape and arrangement of oxyaenid molars help distinguish feeding styles within the family.

• Paranthropus robustusBroader topic: Its unusually large molars are among the species’ most recognizable traits.

• CoryphodonNarrower topic: Coryphodon’s broad molars were suited to chewing plant material.

• MammutidaeRelated: Mammutid molars carry the conical cusps that distinguish the family.

• MultituberculataNarrower topic: Multituberculate cheek teeth are specialized molars with repeated rows of cusps.

• StegodonRelated: Stegodon molars have distinctive ridges that help identify the genus.

• HyaenodontaRelated: The position and form of hyaenodont molars help distinguish the group from carnivorans.

• MesonychidaeRelated: Distinctive triangular molars gave mesonychids their name and helped process meat and bone.

• Paranthropus aethiopicusRelated: Its large molars supplied broad grinding surfaces for processing tough or fibrous foods.

• AnthracotheriidaeBroader topic: Anthracothere molars preserve diagnostic features used to identify and compare species.

• DeinotheriidaeRelated: Deinothere molars show adaptations for processing vegetation.

• DesmostyliaBroader topic: Desmostylian molars formed distinctive vertical pillars unlike those of most mammals.

• MoeritheriumRelated: Its low-crowned molars help characterize Moeritherium’s feeding anatomy.

• PurgatoriusRelated: Purgatorius molars help researchers infer what its small-bodied animal ate.

• AnoplotheriumRelated: Anoplotherium’s molar form is central to interpreting its diet.

• AnthracotheriumRelated: Anthracotherium's broad cheek teeth are central to identifying its feeding anatomy.

• EutriconodontaRelated: The aligned cusps that characterize eutriconodonts occur on their molars.

• StegodontidaeRelated: Stegodont molars have distinctive low ridges that help identify the family.

• CainotheriidaeRelated: Cainotheriid molars preserve features used to compare species and infer diet.

• DidelphodonRelated: Its robust molars reveal how Didelphodon processed hard or resistant foods.

• Human toothBroader topic: Molars perform much of the final mechanical breakdown of food.

• Penghu 1Broader topic: The size and shape of Penghu 1’s molars are central to its anatomical distinctiveness.