Linked from

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

• GuitarfishRelated: It helps guitarfishes sense nearby prey and water movement while close to the seabed.

• WobbegongRelated: It can help a resting wobbegong sense nearby movement in the water.

• AcanthuridaeRelated: Like other fishes, acanthurids use this system to sense nearby movement underwater.

• BillfishRelated: It helps billfish sense nearby movement while pursuing prey.

• CephalaspisRelated: Canals in the head shield preserved sensory structures associated with detecting nearby motion.

• EsoxRelated: It helps pike locate disturbances caused by nearby prey.

• Japanese giant salamanderRelated: It helps detect prey and disturbances in the stream despite poor visibility.

• LampriformesRelated: Its conspicuous course along many lampriform bodies is a useful identification feature.

• Spotted ratfishRelated: This system helps the spotted ratfish sense disturbances in dark water.

• Aquatic animalBroader topic: It lets animals detect nearby motion even when vision is limited.

• Frilled sharkRelated: This sensory system helps sharks detect nearby movement in dark water.

• Giant salamanderRelated: This system helps detect prey and disturbances in dark, flowing habitats.

• GobioideiRelated: Its reduction or modification is among the anatomical traits examined in gobioid classification.

• NecturusRelated: Necturus uses this system to sense nearby movement in dark or murky water.

• Pelican eelRelated: This system can help deep-sea fishes detect nearby movement where vision is limited.

• PteraspisRelated: Canal-like sensory structures in its armor are associated with detecting water movement.

• River sharkRelated: It provides information about prey and surroundings in turbid river channels.

• SawsharkRelated: Alongside electroreception, this system helps locate moving prey.

• Shoaling and schoolingRelated: It can provide information about nearby fish when vision is limited.

• StomiiformesRelated: It can help stomiiforms detect nearby prey and motion in dim water.

• Thresher sharkRelated: It helps sharks detect nearby prey before a tail strike.

• AlosaRelated: This sensory system helps schooling fishes respond to nearby movement in water.

• ArandaspisRelated: Its fossil canal pattern is associated with this system in early fishes.

• BatrachoididaeRelated: Its sensory canals help fishes detect nearby movement in dim or turbid water.

• Blue sharkRelated: Like other sharks, it uses this system to sense nearby movement in water.

• CallorhinchusRelated: Its canals help Callorhinchus detect nearby movement in marine habitats.

• CaranxRelated: This system helps fast-moving Caranx detect nearby motion in the water.

• CoregonusRelated: It helps fish detect nearby prey and movement in low-light waters.

• GobiinaeRelated: It helps bottom-dwelling gobies detect nearby movement in water.

• HoundsharkRelated: Like other sharks, houndsharks use this system to sense nearby movement.

• Marine hatchetfishRelated: It helps hatchetfishes sense nearby motion in dark water.

• MerlangiusRelated: The lateral line is among the visible anatomical features used when describing and identifying whiting.

• OsteolepisRelated: Canals and pores in fossil scales can preserve evidence of this sensory system.

• Sea toadRelated: It can help a bottom-dwelling predator detect prey moving nearby in darkness.

• SirenidaeRelated: Lateral-line organs help aquatic sirenids detect movement in their surroundings.

• SparidaeRelated: Like other fishes, sparids use this system to sense nearby motion.

• SynodontidaeRelated: It can help a lizardfish detect nearby prey and disturbances.

• Tailed frogRelated: Tailed frog tadpoles use this system to sense currents while attached to submerged surfaces.

• TriglidaeRelated: It provides a useful comparison with the contact and chemical sensing of gurnards' free rays.