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Neopterygii

Neopterygii (from Greek νέος neos 'new' and πτέρυξ pteryx 'fin') is a subclass of ray-finned fish (Actinopterygii). Neopterygii includes the Holostei and the Teleostei, of which the latter comprise the vast majority of extant fishes, and over half of all living vertebrate species.[3] While living holosteans include only freshwater taxa, teleosts are diverse in both freshwater and marine environments. Many new species of teleosts are scientifically described each year.[3]

Neopterygii
Temporal range: 251–0 Ma (Artinskian)[1]-Induan-present
Siganus corallinus (a teleost)
Lepisosteus oculatus (a holostean)
Scientific classification
Domain: Eukaryota
Kingdom: Animalia
Phylum: Chordata
Class: Actinopterygii
(unranked): Actinopteri
Subclass: Neopterygii
Regan, 1923[2]
Infraclasses

Holostei
Teleostei
See text for orders.

Fossil evidence for crown group neopterygians goes back at least 251 million years to the Induan stage of the Early Triassic epoch,[4][5][6] however, one study incorporating morphological data from fossils and molecular data from nuclear and mitochondrial DNA, places this divergence date at least 284 mya (million years ago), during the Artinskian stage of the Early Permian.[1] Another study suggests an even earlier split (360 myr ago, near the Devonian-Carboniferous boundary).[7]

Vertebrates

Jawless fish (118 living species: hagfish, lampreys)

Jawed vertebrates

Cartilaginous fishes (>1,100 living species: sharks, rays, chimaeras)

Bony fishes
Lobe-fins
Rhipidistia

Tetrapoda (>30,000 living species: amphibians, mammals, reptiles, birds)

Dipnoi (6 living species: lungfish)

Actinistia (2 living species: coelacanths)

Ray-fins

Cladistia (14 living species: bichirs, reedfish)

Actinopteri

Chondrostei (27 living species: sturgeons, paddlefish)

Neopterygii (>32,000 living species)

Evolution and diversity edit

Living neopterygians are subdivided into two main groups (infraclasses): teleosts and holosteans.[8] Holosteans comprise two clades, the Ginglymodi and the Halecomorphi.[9][3][10][11] All of these groups have a long and extensive fossil record.[12] The evolutionary relationships between the different groups of Neopterygii is summarized in the cladogram below (divergence time for each clade in mya are based on[7]).

Neopterygii 360 mya
Holostei 275 mya

Ginglymodi   (7 living species: gars and alligator gars)

Halecomorphi   (1 living species: bowfin)

310 mya

Teleostei   (>32,000 living species)

Neopterygians are a very speciose group. They make up over 50% of the total vertebrate diversity today, and their diversity grew since the Mesozoic era.[12][13] However, the diversity of the various groups of neopterygians (or of fishes in general) is unevenly distributed, with teleosts making up the vast majority (96%) of living species.[3]

 
Early Triassic parasemionotiform Watsonulus is an early neopterygian

Early in their evolution, neopterygians were a very successful group of fish, because they could move more rapidly than their ancestors. Their scales and skeletons began to lighten during their evolution, and their jaws became more powerful and efficient.[3] While electroreception and the ampullae of Lorenzini are present in all other groups of fish, with the exception of hagfish (although hagfish are not actinopterygians, they are agnathans), neopterygians have lost this sense, even if it has later been re-evolved within Gymnotiformes and catfishes, which possess non-homologous teleost ampullae.[14]

Only a few changes occurred during the evolution of neopterygians from the earlier actinopterygians. However, a very important step in the evolution of neopterygians is the acquisition of a better control of the movements of both dorsal and anal fins, resulting in an improvement in their swimming capabilities. They additionally acquired several modifications in the skull, which allowed the evolution of different feeding mechanisms and consequently the colonization of new ecological niches. All of these characters represented major improvements, resulting in Neopterygii becoming the dominant group of fishes (and, thus, taxonomically of vertebrates in general) today.[12]

The great diversity of extant teleosts has been linked to a whole genome duplication event during their evolution.[15]

Classification edit

References edit

  1. ^ a b Hurley, Imogen A.; Mueller, Rachael Lockridge; Dunn, Katherine A. (21 November 2006). "A new time-scale for ray-finned fish evolution". Proceedings of the Royal Society B. 274 (1609): 489–498. doi:10.1098/rspb.2006.3749. PMC 1766393. PMID 17476768.
  2. ^ Regan, C. Tate (1923). "The Skeleton of Lepidosteus, with remarks on the origin and evolution of the lower Neopterygian Fishes". Journal of Zoology. 93 (2): 445–461. doi:10.1111/j.1096-3642.1923.tb02191.x.
  3. ^ a b c d e Nelson, Joseph, S. (2016). Fishes of the World. John Wiley & Sons, Inc. ISBN 978-1-118-34233-6.{{cite book}}: CS1 maint: multiple names: authors list (link)
  4. ^ Olsen, P.E. (1984). "The skull and pectoral girdle of the parasemionotid fish Watsonulus eugnathoides from the Early Triassic Sakamena Group of Madagascar, with comments on the relationships of the holostean fishes". Journal of Vertebrate Paleontology. 4 (3): 481–499. Bibcode:1984JVPal...4..481O. doi:10.1080/02724634.1984.10012024.
  5. ^ Gardiner, B. G. (1993). "Osteichtythyes: basal actinopterygians". Fossil Record II.
  6. ^ Grande, Lance; Bemis, William E. (1998). "A Comprehensive Phylogenetic Study of Amiid Fishes (Amiidae) Based on Comparative Skeletal Anatomy. an Empirical Search for Interconnected Patterns of Natural History". Journal of Vertebrate Paleontology. 18 (Supplementary 1): 1–696. Bibcode:1998JVPal..18S...1G. doi:10.1080/02724634.1998.10011114.
  7. ^ a b Thomas J. Near; et al. (2012). "Resolution of ray-finned fish phylogeny and timing of diversification". PNAS. 109 (34): 13698–13703. Bibcode:2012PNAS..10913698N. doi:10.1073/pnas.1206625109. PMC 3427055. PMID 22869754.
  8. ^ López-Arbarello, A (2012). "Phylogenetic Interrelationships of Ginglymodian Fishes (Actinopterygii: Neopterygii)". PLOS ONE. 7 (7): e39370. Bibcode:2012PLoSO...739370L. doi:10.1371/journal.pone.0039370. PMC 3394768. PMID 22808031.
  9. ^ Betancur-R (2016). "Phylogenetic Classification of Bony Fishes Version 4".
  10. ^ "Actinopterygii". Integrated Taxonomic Information System. Retrieved 3 April 2006.
  11. ^ R. Froese and D. Pauly, ed. (February 2006). "FishBase".
  12. ^ a b c Friedman, Matt; Sallan, Lauren Cole (June 2012). "Five hundred million years of extinczion and recovery: A Phanerozoic survey of large-scale diversity patterns in fishes". Palaeontology. 55 (4): 707–742. Bibcode:2012Palgy..55..707F. doi:10.1111/j.1475-4983.2012.01165.x. S2CID 59423401.
  13. ^ Romano, Carlo; Koot, Martha B.; Kogan, Ilja; Brayard, Arnaud; Minikh, Alla V.; Brinkmann, Winand; Bucher, Hugo; Kriwet, Jürgen (February 2016). "Permian-Triassic Osteichthyes (bony fishes): diversity dynamics and body size evolution". Biological Reviews. 91 (1): 106–147. doi:10.1111/brv.12161. PMID 25431138. S2CID 5332637.
  14. ^ Electroreception By Theodore Holmes Bullock
  15. ^ Pasquier, Jeremy; Braasch, Ingo; Batzel, Peter; Cabau, Cedric; Montfort, Jérome; Nguyen, Thaovi; Jouanno, Elodie; Berthelot, Camille; Klopp, Christophe; Journot, Laurent; Postlethwai, John H.; Guigue, Yann; Bob, Julien (2017). "Evolution of gene expression after whole-genome duplication: new insights from the spotted gar genome". J Exp Zool (Mol Dev Evol). 328 (7): 709–721. doi:10.1002/jez.b.22770. PMC 5679426. PMID 28944589.
  16. ^ Xu, Guang-Hui (2021-01-09). "A new stem-neopterygian fish from the Middle Triassic (Anisian) of Yunnan, China, with a reassessment of the relationships of early neopterygian clades". Zoological Journal of the Linnean Society. 191 (2): 375–394. doi:10.1093/zoolinnean/zlaa053. ISSN 0024-4082.
  17. ^ In ITIS, Gobiesociformes is placed as the suborder Gobiesocoidei of the order Perciformes.
  18. ^ In ITIS, Syngnathiformes is placed as the suborder Syngnathoidei of the order Gasterosteiformes.

neopterygii, from, greek, νέος, neos, πτέρυξ, pteryx, subclass, finned, fish, actinopterygii, includes, holostei, teleostei, which, latter, comprise, vast, majority, extant, fishes, over, half, living, vertebrate, species, while, living, holosteans, include, o. Neopterygii from Greek neos neos new and ptery3 pteryx fin is a subclass of ray finned fish Actinopterygii Neopterygii includes the Holostei and the Teleostei of which the latter comprise the vast majority of extant fishes and over half of all living vertebrate species 3 While living holosteans include only freshwater taxa teleosts are diverse in both freshwater and marine environments Many new species of teleosts are scientifically described each year 3 NeopterygiiTemporal range 251 0 Ma Artinskian 1 Induan present PreꞒ Ꞓ O S D C P T J K Pg NSiganus corallinus a teleost Lepisosteus oculatus a holostean Scientific classificationDomain EukaryotaKingdom AnimaliaPhylum ChordataClass Actinopterygii unranked ActinopteriSubclass NeopterygiiRegan 1923 2 InfraclassesHolosteiTeleostei See text for orders Fossil evidence for crown group neopterygians goes back at least 251 million years to the Induan stage of the Early Triassic epoch 4 5 6 however one study incorporating morphological data from fossils and molecular data from nuclear and mitochondrial DNA places this divergence date at least 284 mya million years ago during the Artinskian stage of the Early Permian 1 Another study suggests an even earlier split 360 myr ago near the Devonian Carboniferous boundary 7 Vertebrates Jawless fish 118 living species hagfish lampreys Jawed vertebrates Cartilaginous fishes gt 1 100 living species sharks rays chimaeras Bony fishes Lobe fins Rhipidistia Tetrapoda gt 30 000 living species amphibians mammals reptiles birds Dipnoi 6 living species lungfish Actinistia 2 living species coelacanths Ray fins Cladistia 14 living species bichirs reedfish Actinopteri Chondrostei 27 living species sturgeons paddlefish Neopterygii gt 32 000 living species Evolution and diversity editFurther information Evolution of fish and Diversity of fish Living neopterygians are subdivided into two main groups infraclasses teleosts and holosteans 8 Holosteans comprise two clades the Ginglymodi and the Halecomorphi 9 3 10 11 All of these groups have a long and extensive fossil record 12 The evolutionary relationships between the different groups of Neopterygii is summarized in the cladogram below divergence time for each clade in mya are based on 7 Neopterygii 360 mya Holostei 275 mya Ginglymodi nbsp 7 living species gars and alligator gars Halecomorphi nbsp 1 living species bowfin 310 mya Teleostei nbsp gt 32 000 living species Neopterygians are a very speciose group They make up over 50 of the total vertebrate diversity today and their diversity grew since the Mesozoic era 12 13 However the diversity of the various groups of neopterygians or of fishes in general is unevenly distributed with teleosts making up the vast majority 96 of living species 3 nbsp Early Triassic parasemionotiform Watsonulus is an early neopterygianEarly in their evolution neopterygians were a very successful group of fish because they could move more rapidly than their ancestors Their scales and skeletons began to lighten during their evolution and their jaws became more powerful and efficient 3 While electroreception and the ampullae of Lorenzini are present in all other groups of fish with the exception of hagfish although hagfish are not actinopterygians they are agnathans neopterygians have lost this sense even if it has later been re evolved within Gymnotiformes and catfishes which possess non homologous teleost ampullae 14 Only a few changes occurred during the evolution of neopterygians from the earlier actinopterygians However a very important step in the evolution of neopterygians is the acquisition of a better control of the movements of both dorsal and anal fins resulting in an improvement in their swimming capabilities They additionally acquired several modifications in the skull which allowed the evolution of different feeding mechanisms and consequently the colonization of new ecological niches All of these characters represented major improvements resulting in Neopterygii becoming the dominant group of fishes and thus taxonomically of vertebrates in general today 12 The great diversity of extant teleosts has been linked to a whole genome duplication event during their evolution 15 Classification editOrder Pholidopleuriformes Order Redfieldiiformes Order Platysiagiformes Order Polzbergiiformes Order Perleidiformes Order Louwoichthyiformes 16 Order Peltopleuriformes Order Luganoiiformes Order Pycnodontiformes Infraclass Holostei Clade Halecomorphi Order Parasemionotiformes Order Panxianichthyiformes Order Ionoscopiformes Order Amiiformes the bowfin Clade Ginglymodi Order Dapediiformes Order Semionotiformes Order Lepisosteiformes the gars Clade Teleosteomorpha Order Prohaleciteiformes Order Aspidorhynchiformes Order Pachycormiformes Infraclass Teleostei Order Araripichthyiformes Order Ligulelliiformes Order Tselfatiiformes Order Pholidophoriformes Order Dorsetichthyiformes Order Leptolepidiformes Order Crossognathiformes Order Ichthyodectiformes Superorder Osteoglossomorpha Order Lycopteriformes Order Osteoglossiformes the bony tongued fishes Order Hiodontiformes including the mooneye and goldeye Superorder Elopomorpha Order Elopiformes including the ladyfishes and tarpon Order Albuliformes the bonefishes Order Notacanthiformes including the halosaurs and spiny eels Order Anguilliformes the true eels Order Saccopharyngiformes including the gulper eel Superorder Clupeomorpha Order Ellimmichthyiformes Order Clupeiformes including herrings and anchovies Superorder Ostariophysi Order Sorbininardiformes Order Gonorynchiformes including the milkfishes Order Cypriniformes including barbs carp danios goldfishes loaches minnows rasboras Order Characiformes including characins pencilfishes hatchetfishes piranhas tetras Order Gymnotiformes including electric eels and knifefishes Order Siluriformes the catfishes Superorder Lepidogalaxii Order Lepidogalaxiiformes the salamanderfish Superorder Protacanthopterygii Order Argentiniformes including the barreleyes and slickheads formerly in Osmeriformes Order Salmoniformes including salmon Arctic char and trout Order Esociformes the pikes and mudminnows Order Galaxiiformes the galaxiids Order Osmeriformes including the smelts Superorder Stenopterygii may belong in Protacanthopterygii Order Ateleopodiformes the jellynose fish Order Stomiiformes including the bristlemouths and marine hatchetfishes Superorder Cyclosquamata may belong in Protacanthopterygii Order Aulopiformes including the Bombay duck tripod fish and lancetfishes Superorder Scopelomorpha Order Myctophiformes including the lanternfishes Superorder Lampridiomorpha Order Lampriformes including the oarfish opah and ribbonfishes Superorder Polymyxiomorpha Order Pattersonichthyiformes Order Ctenothrissiformes Order Polymixiiformes the beardfishes Superorder Paracanthopterygii Order Percopsiformes including the cavefishes and trout perches Order Sphenocephaliformes Order Batrachoidiformes the toadfishes Order Lophiiformes including the anglerfishes Order Gadiformes including cods Order Ophidiiformes including the pearlfishes Superorder Acanthopterygii Order Mugiliformes the mullets Order Atheriniformes including silversides and rainbowfishes Order Beloniformes including the flyingfishes Order Cetomimiformes the whalefishes Order Cyprinodontiformes including live bearers killifishes Order Stephanoberyciformes including the ridgeheads Order Beryciformes including the fangtooths and pineconefishes Order Zeiformes including the dories Order Gobiesociformes the clingfishes 17 Order Gasterosteiformes including sticklebacks Order Syngnathiformes including the seahorses and pipefishes 18 Order Synbranchiformes including the swamp eels Order Tetraodontiformes including the sunfish filefishes and pufferfish Order Pleuronectiformes the flatfishes Order Scorpaeniformes including scorpionfishes and the sculpins Order Perciformes 40 of all fish including anabantids bass cichlids gobies gouramis mackerel perches scats whiting wrassesReferences edit a b Hurley Imogen A Mueller Rachael Lockridge Dunn Katherine A 21 November 2006 A new time scale for ray finned fish evolution Proceedings of the Royal Society B 274 1609 489 498 doi 10 1098 rspb 2006 3749 PMC 1766393 PMID 17476768 Regan C Tate 1923 The Skeleton of Lepidosteus with remarks on the origin and evolution of the lower Neopterygian Fishes Journal of Zoology 93 2 445 461 doi 10 1111 j 1096 3642 1923 tb02191 x a b c d e Nelson Joseph S 2016 Fishes of the World John Wiley amp Sons Inc ISBN 978 1 118 34233 6 a href Template Cite book html title Template Cite book cite book a CS1 maint multiple names authors list link Olsen P E 1984 The skull and pectoral girdle of the parasemionotid fish Watsonulus eugnathoides from the Early Triassic Sakamena Group of Madagascar with comments on the relationships of the holostean fishes Journal of Vertebrate Paleontology 4 3 481 499 Bibcode 1984JVPal 4 481O doi 10 1080 02724634 1984 10012024 Gardiner B G 1993 Osteichtythyes basal actinopterygians Fossil Record II Grande Lance Bemis William E 1998 A Comprehensive Phylogenetic Study of Amiid Fishes Amiidae Based on Comparative Skeletal Anatomy an Empirical Search for Interconnected Patterns of Natural History Journal of Vertebrate Paleontology 18 Supplementary 1 1 696 Bibcode 1998JVPal 18S 1G doi 10 1080 02724634 1998 10011114 a b Thomas J Near et al 2012 Resolution of ray finned fish phylogeny and timing of diversification PNAS 109 34 13698 13703 Bibcode 2012PNAS 10913698N doi 10 1073 pnas 1206625109 PMC 3427055 PMID 22869754 Lopez Arbarello A 2012 Phylogenetic Interrelationships of Ginglymodian Fishes Actinopterygii Neopterygii PLOS ONE 7 7 e39370 Bibcode 2012PLoSO 739370L doi 10 1371 journal pone 0039370 PMC 3394768 PMID 22808031 Betancur R 2016 Phylogenetic Classification of Bony Fishes Version 4 Actinopterygii Integrated Taxonomic Information System Retrieved 3 April 2006 R Froese and D Pauly ed February 2006 FishBase a b c Friedman Matt Sallan Lauren Cole June 2012 Five hundred million years of extinczion and recovery A Phanerozoic survey of large scale diversity patterns in fishes Palaeontology 55 4 707 742 Bibcode 2012Palgy 55 707F doi 10 1111 j 1475 4983 2012 01165 x S2CID 59423401 Romano Carlo Koot Martha B Kogan Ilja Brayard Arnaud Minikh Alla V Brinkmann Winand Bucher Hugo Kriwet Jurgen February 2016 Permian Triassic Osteichthyes bony fishes diversity dynamics and body size evolution Biological Reviews 91 1 106 147 doi 10 1111 brv 12161 PMID 25431138 S2CID 5332637 Electroreception By Theodore Holmes Bullock Pasquier Jeremy Braasch Ingo Batzel Peter Cabau Cedric Montfort Jerome Nguyen Thaovi Jouanno Elodie Berthelot Camille Klopp Christophe Journot Laurent Postlethwai John H Guigue Yann Bob Julien 2017 Evolution of gene expression after whole genome duplication new insights from the spotted gar genome J Exp Zool Mol Dev Evol 328 7 709 721 doi 10 1002 jez b 22770 PMC 5679426 PMID 28944589 Xu Guang Hui 2021 01 09 A new stem neopterygian fish from the Middle Triassic Anisian of Yunnan China with a reassessment of the relationships of early neopterygian clades Zoological Journal of the Linnean Society 191 2 375 394 doi 10 1093 zoolinnean zlaa053 ISSN 0024 4082 In ITIS Gobiesociformes is placed as the suborder Gobiesocoidei of the order Perciformes In ITIS Syngnathiformes is placed as the suborder Syngnathoidei of the order Gasterosteiformes nbsp Wikispecies has information related to Neopterygii nbsp fish portal Retrieved from https en wikipedia org w index php title Neopterygii amp oldid 1179146534, wikipedia, wiki, book, books, library,

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