Palaeontinidae

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Palaeontinidae
Temporal range: Late Triassic-Early Cretaceous Norian–Aptian
Palaeontinidae gallert.jpg
Gallery of various palaeontinids
Scientific classification OOjs UI icon edit-ltr.svg
Domain: Eukaryota
Kingdom: Animalia
Phylum: Arthropoda
Class: Insecta
Order: Hemiptera
Suborder: Auchenorrhyncha
Infraorder: Cicadomorpha
Superfamily: Palaeontinoidea
Family: Palaeontinidae
Handlirsch, 1906
Type genus
Palaeontina
Butler, 1873
Genera

See text

Synonyms

CicadomorphidaeEvans, 1956

Palaeontinidae, commonly known as giant cicadas, is an extinct family of cicadomorphs. They existed from the Late Triassic to the Early Cretaceous. Despite being described as "giant cicadas", [1] they are not particularly closely related to true cicadas. [2] The family contains around 30 to 40 genera and around a hundred species. [3]

Contents

Discovery

The first palaeontinid discovered was Palaeontina oolitica . It consisted of a single forewing [4] collected from the Taynton Limestone Formation (Stonesfield Slate) of Oxfordshire, England by the English natural historian Edward Charlesworth. It was first described in 1873 by the English entomologist Arthur Gardiner Butler in his book Lepidoptera Exotica; or, Descriptions and Illustrations of Exotic Lepidoptera. Butler claimed that it was the oldest butterfly ever recovered, having mistakenly identified it as a butterfly of the family Nymphalidae. [5]

Description and paleobiology

Palaeontinids had large bodies covered with bristles (setae). They had small heads and broad wings. They superficially resemble moths. [6] [7] Large palaeontinids like Colossocossus had forewings that reached the length of 57 to 71 mm (2.2 to 2.8 in). [8] They possessed an inflated frons and a long rostrum (piercing and sucking mouthpart), indicating that they fed on xylem fluids like some other modern hemipterans, [9] including living cicadas to which they have often been compared. [1]

Some authors have proposed that the host plants of palaeontinids to be ginkgophytes based on the geographic distribution of both groups, however other authors have argued that this association is likely to be spurious, given that that paleontinids also occur in areas with no ginkgophytes. Some authors have suggested that the decline of gymnosperms and the rise of angiosperms (flowering plants) during the Cretaceous could have been a factor in their extinction. [8] Numerous newly evolved insectivorous animals (feathered theropods, primitive mammals, and early birds) may have also contributed significantly to their extinction. [10]

Most species of palaeontinids exhibit cryptic coloration. [11] The patterns on their wings protected them as they perched on branches and fed on sap. They may also have served as secondary sexual characteristics. The color patterns can vary slightly within the same species. [9]

Illustration of a palaeontinid being persued by a primitive bird during the Early Cretaceous Palaeontinid chased by bird.jpg
Illustration of a palaeontinid being persued by a primitive bird during the Early Cretaceous

Palaeontinids, like modern cicadas, possess four membranous wings supported by veins. The length and width ratio of the wings can vary within the same species, sometimes as a result of fossil preservation. [9] Early Jurassic palaeontinids, like Suljuktocossus , exhibit the most primitive wing forms in the family. [12] The forewing was elliptical with the "nodal line" (the area where the wing bends during flight, also known as the "transverse flexion line") more or less dissecting through the center of the wing. The hindwing was short and broad. The bases of the forewings overlapped that of the hindwings like in modern butterflies. Taken together with their large bodies, these characteristics indicate that they were fast but moderately versatile fliers. [13]

In contrast, later palaeontinids like the Upper Jurassic Eocicada and Early Cretaceous Ilerdocossus had triangular forewings with the flexion line closer to the base. They had smaller and narrower hindwings that did not overlap with the forewing. These indicate that they were highly versatile fliers, able to fly with a wide range of speeds and agility like modern wasps and sphinx moths. [13] They also possessed changes to the leading edge of their forewings, suggesting an overall gain in lift. [12] The different wing shape of later palaeontinids may have evolved to more effectively escape from flying predators like early birds. [1]

The trend of forewing elongation is most evident in members of the family Mesogereonidae, an early offshoot and close relatives of palaeontinids. [14]

Classification

Early Jurassic palaeontinids [4]

The family was first erected by the Austrian entomologist Anton Handlirsch in 1908. Like Butler, Handlirsch insisted that palaeontinids were members of lepidopteran Heteroneura (butterflies and moths). Palaeontinids were then only known mostly from poorly preserved specimens like Palaeontina and Eocicada . He claimed they were related to the extant family Limacodidae (slug moths). [15] The English entomologist Edward Meyrick supported the lepidopteran conclusion, though he believed they belonged to the family Hepialidae (ghost moths) instead. He said "There is little doubt that it [i.e. Palaeontina oolitica] belongs to the Hepialidae." [4]

The Belgian entomologist Auguste Lameere challenged this conclusion, claiming palaeontinids were more closely related to the extant family Cicadidae (cicadas). The English-Australian entomologist and geologist Robert John Tillyard supported Lameere's conclusion, noting that the wings of palaeontinid fossils lacked the characteristic scales of lepidopterans but instead had tubercules, pits, and cross-ridges like those found in modern cicadas. [15] He also cited characteristics of wing venation that distinctly differs from that of lepidopterans. [4]

Palaeontinidae are currently classified under the extinct superfamily Palaeontinoidea along with the families Dunstaniidae and Mesogereonidae. [12] They are classified under infraorder Cicadomorpha of the hemipterans (true bugs). [16] Despite being described as "giant cicadas", other living cicadomorphs (leafhoppers, treehoppers, and spittlebugs) are more closely related to modern cicadas than palaeontinids are. [2]

The name Cicadomorphidae was once proposed as a replacement for the name Palaeontinidae in 1956 by the Australian entomologist J.W. Evans. This was because of Handlirsch's earlier insistence that the type species Palaeontina oolitica may not have been Hemipteran. However, Evans later conceded that retaining the name Palaeontinidae was preferable as the drawings Handlirsch based his conclusions on were from badly preserved specimens. [17]

Evolution

Riek (1976) originally considered Palaeontinoidea to be the descendants of the family Cicadoprosbolidae (currently known as the family Tettigarctidae), insects believed to be transitional between the ancestral cicada-like family Prosbolidae and the modern family Cicadidae. [12]

Wang et al (2009), however, notes that palaeontinoids more closely resemble prosbolids in agreement with earlier studies by Wootton (1971), Shcherbakov (1984), and Shcherbakov and Popov (2002). They conclude that palaeontinoids descended directly from the family Prosbolidae rather than from tettigarctids. [12] Modern cicadas therefore, did not descend directly from Palaeontinidae.

Within Palaeontinoidea, the family Dunstaniidae (Upper Permian to Lower Jurassic of Australia, South Africa, and China) is ancestral to palaeontinids. Both are distinct from the only other member of the superfamily, the more primitive and specialized family Mesogereonidae (Upper Triassic of Australia and South Africa). [12]

Distribution and geologic time range

Paleogeographic representation of the Earth during the Early Cretaceous showing the approximate locations of some palaeontinid fossil sites. 1 - Crato Formation, Brazil; 2 - Serra del Montsec, Spain; 3 - Baissa, Transbaikalia; and 4 - Yixian Formation, China. Palaeontinidae Distribution (Late Jurassic).jpg
Paleogeographic representation of the Earth during the Early Cretaceous showing the approximate locations of some palaeontinid fossil sites. 1 - Crato Formation, Brazil; 2 - Serra del Montsec, Spain; 3 - Baissa, Transbaikalia; and 4 - Yixian Formation, China.

The oldest known member of the group is Hallakkungis from South Korea dating to the Norian stage of the Late Triassic (ca. 227 – ca. 208.5 Mya) [18] and the youngest members are from the late Aptian age of the Lower Cretaceous (~115-113 Mya). [10] [16] They achieved their greatest diversity during the Jurassic period. [19]

Palaeontinid fossils are abundant in Eurasia and South America. [12] Fossils have been recorded in Brazil, China, Russia, Germany, the Transbaikal region, Tajikistan, Turkmenistan, Kyrgyzstan, Kazakhstan, Spain, and the United Kingdom. Important localities for palaeontinid fossils include the Crato Formation Lagerstätte of Brazil and the Yixian Formation, Haifanggou (or Jiulongshan) Formation, and the Daohugou Beds of China. [8] [9] [20]

Genera

The following is the list of genera classified under Palaeontinidae: [21]

See also

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