Peter L. Forey
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From the Crato Formation (Lower Cretaceous)
ORYCTOS.Vol. 3 : 3 - 8. Décembre2000 FIRSTRECORD OT CALAMOPLEU RUS (ACTINOPTERYGII:HALECOMORPHI: AMIIDAE) FROMTHE CRATO FORMATION (LOWER CRETACEOUS) OF NORTH-EAST BRAZTL David M. MARTILL' and Paulo M. BRITO'z 'School of Earth, Environmentaland PhysicalSciences, University of Portsmouth,Portsmouth, POl 3QL UK. 2Departmentode Biologia Animal e Vegetal,Universidade do Estadode Rio de Janeiro, rua SâoFrancisco Xavier 524. Rio de Janeiro.Brazll. Abstract : A partial skeleton representsthe first occurrenceof the amiid (Actinopterygii: Halecomorphi: Amiidae) Calamopleurus from the Nova Olinda Member of the Crato Formation (Aptian) of north east Brazil. The new spe- cimen is further evidencethat the Crato Formation ichthyofauna is similar to that of the slightly younger Romualdo Member of the Santana Formation of the same sedimentary basin. The extended temporal range, ?Aptian to ?Cenomanian,for this genus rules out its usefulnessas a biostratigraphic indicator for the Araripe Basin. Key words: Amiidae, Calamopleurus,Early Cretaceous,Brazil Première mention de Calamopleurus (Actinopterygii: Halecomorphi: Amiidae) dans la Formation Crato (Crétacé inférieur), nord est du Brésil Résumé : la première mention dans le Membre Nova Olinda de la Formation Crato (Aptien ; nord-est du Brésil) de I'amiidé (Actinopterygii: Halecomorphi: Amiidae) Calamopleurus est basée sur la découverted'un squelettepar- tiel. Le nouveau spécimen est un élément supplémentaireindiquant que I'ichtyofaune de la Formation Crato est similaire à celle du Membre Romualdo de la Formation Santana, située dans le même bassin sédimentaire. L'extension temporelle de ce genre (?Aptien à ?Cénomanien)ne permet pas de le considérer comme un indicateur biostratigraphiquepour le bassin de l'Araripe. Mots clés : Amiidae, Calamopleurus, Crétacé inférieu4 Brésil INTRODUCTION Araripina and at Mina Pedra Branca, near Nova Olinda where cf. -
Figura 33: Consenso Estrito Das Cinco Árvores Mais Parcimoniosas
98 Figura 33: Consenso estrito das cinco árvores mais parcimoniosas. 99 Figura 34: C onsenso de maioria das cinco árvores mais parcimoniosas. 100 3 DISCUSSÃO 3.1 Nomenclatura 3.1.1 Série orbital A descrição da série orbital da presente dissertação foi baseada, principalmente, na nomenclatura utilizada por Daget (1964), Patterson (1973) e Grande & Bemis (1998). Daget (1964) definiu os ossos da série infraorbital como sendo os ossos que se dispõem ao longo do canal infraorbital (canal que segue da região nasal, passa abaixo das narinas e dos olhos e segue para trás pelo dermopterótico, chegando ao extraescapular e encontrando o canal da linha lateral), à frente do pterótico e anexados à margem da órbita. Expôs que podiam ser designados por número de ordem, da parte mais anterior para a mais posterior (e.g., infraorbital 1, infraorbital 2, infraorbital 3) ou por posição em relação a órbita (e.g., antorbital, suborbital e postorbital). O autor adotou a designação por ordem. Expôs ainda que é comum a denominação do último infraorbial como dermoesfenótico, osso no qual muitas vezes ocorre a anastomose do canal infraorbital com o canal supraorbital (canal que passa no nasal e no frontal). Para os ossos sem canal da série orbital, os quais Daget tratou como puramente membranosos, ele definiu como supraorbitais os ossos anexados ao longo da borda antero-lateral do frontal e como adenasal (= antorbital para outros autores) o osso entre o nasal e o primeiro infraorbital (Daget, 1964: fig. 38). Patterson (1973), da mesma forma que Daget (1964), denominou de infraorbitais os ossos anexados à margem inferior da órbita pelos quais passava o canal infraorbital e de supraorbitais os ossos anexados à margem superior da órbita e ao frontal. -
A Synopsis of the Vertebrate Fossils of the English Chalk
A. S. WOODWARD ON FOSSILS OF THE ENGLI SH CHALK. 273 Portion of tooth of Mosasallrus, from the Upper Chalk of Norwich, exhibited hy Mr. B. B. W OODWARD, F.G.S. R ecent Conglomeratic Boulder (pebbles in clay), from the Isle of Wight, exhibited by Mr. E . LITCIIFIELD. A SYNOPSIS 0 .. THE VERTEBRATE FOSSILS OF THE ENGLISH CIIALK. By A. SMITH WOODWARD, F .G.S., F .Z.S., of the British Museum tNatural History). I. INTRODUCTION. Since the publication of the revised edition of Dixon's ' Geology and Fossils of Sussex,' in 1878, no synoptical review of the ver tebrate fossils of the English Chalk appears to have been at tempted; and with the exception of the elaborate (though not critical) synopsis of genera in Mr. Etheridge's new edition of Phillips' 'Manual,' students of Cretaceous pal reontology can still find no other concise treatise on the subject. Much advance, how ever, has been made within the last ten years in our knowledge of later Mesozoic life; and I propose in the present communication to offer a brief epit ome of the facts in regard to the Vertebrata of the period, yielded by th e well-known uppermost division of the Meso zoic strata in Western Europe. Th e' Proceedings' of th e Asso ciation afford a most appropriate medium for the publication of such a review, so many of th e Members being interested in the treasures continually disinterred from th e numerous chalk pits of the South of England. And I have fortunately been able to compare with all that has been written th e unrivalled series of original specimens in the British Museum, and th e collection of Henry Willett, Esq., F .G.S., of Brighton, besides many othe r fossils in th e Museum of Practical Geology, Jermyn Street, the W oodwardian Museum, Cambridge, and the private cabinets of Mr. -
Marine Early Triassic Osteichthyes from Spiti, Indian Himalayas
Swiss J Palaeontol (2016) 135:275–294 DOI 10.1007/s13358-015-0098-6 Marine Early Triassic Osteichthyes from Spiti, Indian Himalayas 1 1 1 1 Carlo Romano • David Ware • Thomas Bru¨hwiler • Hugo Bucher • Winand Brinkmann1 Received: 12 March 2015 / Accepted: 11 August 2015 / Published online: 28 September 2015 Ó Akademie der Naturwissenschaften Schweiz (SCNAT) 2015 Abstract A new, marine osteichthyan (bony fish) fauna strata of other localities. The study of Early Triassic fish from the Early Triassic of northern India is presented. The assemblages, including the presented one, is fundamental material was collected in situ at localities within Pin Valley for our understanding of the great osteichthyan diversifi- (Lahaul and Spiti District, Himachal Pradesh, India) and is cation after the Late Permian mass extinction event. dated as middle-late Dienerian (one specimen possibly earliest Smithian). The new ichthyofauna includes a lower Keywords Neotethys Á Northern Indian Margin Á jaw of the predatory basal ray-finned fish Saurichthys,a Gondwana Á Anoxia Á Biotic recovery Á Urohyal nearly complete specimen of a parasemionotid neoptery- gian (cf. Watsonulus cf. eugnathoides), as well as further Abbreviations articulated and disarticulated remains (Actinopterygii CMNFV Canadian Museum of Nature (Fossil indet., Actinistia indet.), and thus comprises the most Vertebrate), Ottawa, Canada complete Triassic fish fossils known from the Indian sub- MNHN.F Muse´um National d’Histoire Naturelle, Paris, continent. Saurichthys is known from many Triassic France localities and reached a global distribution rapidly after the PIMUZ Pala¨ontologisches Institut und Museum, Late Permian mass extinction event. Parasemionotidae, a Universita¨tZu¨rich, Zu¨rich, Schweiz species-rich family restricted to the Early Triassic, also achieved widespread distribution during this epoch. -
Hans-Peter Schultze, a Great Paleoichthyologist for Whom Work Is Synonymous with Enjoyment
Mitt. Mus. Nat.kd. Berl., Geowiss. Reihe 5 (2002) 5-17 10.11.2002 Hans-Peter Schultze, a great paleoichthyologist for whom work is synonymous with enjoyment Richard Cloutierl With 4 figures and 2 tables In the summer of 1982, Hans-Peter Schultze and above all by his simplicity and friendliness. Two Gloria Arratia were invited to a small museum years later I started my PbD. at The University located on a fossiliferous site of the Devonian of Kansas, under the supervision of Hans-Peter. Escuminac Formation in Miguasha, Quebec, Compared to his long career, these two weeks eastern Canada. Hans-Peter was to work with that Hans-Peter spent in Miguasha represent an Marius Arsenault, the director of the Miguasha extremely short period of time. Some might say Museum, on the skull of the elpistostegalid EZ- that this little anecdote is insignificant when in- pistostege watsoni, a species closely related to ba- troducing a vertebrate paleontologist (Fig. ZA) sal tetrapods. In addition, he went through the who published 132 papers and books (a total of collections to describe and measure numerous 2977 published pages) in addition to more than juvenile specimens of the osteolepiform Eusthe- 80 abstracts, book reviews and obituaries. How- nopteron foordi. As expected, these two projects ever, this brief story is representative of Hans- turned out to be important contributions in low- Peter’s personality and contributions. He is a er vertebrate paleontology and systematics: one great scientist with numerous interests in science, on the origin of tetrapods (1985), and the second art, and history. Hans-Peter enjoys digging for one on growth patterns of a Late Devonian fish fossils, looking at fossils and describing fossils, (1984). -
Fins, Limbs, and Tails: Outgrowths and Axial Patterning in Vertebrate Evolution Michael I
Review articles Fins, limbs, and tails: outgrowths and axial patterning in vertebrate evolution Michael I. Coates1* and Martin J. Cohn2 Summary Current phylogenies show that paired fins and limbs are unique to jawed verte- brates and their immediate ancestry. Such fins evolved first as a single pair extending from an anterior location, and later stabilized as two pairs at pectoral and pelvic levels. Fin number, identity, and position are therefore key issues in vertebrate developmental evolution. Localization of the AP levels at which develop- mental signals initiate outgrowth from the body wall may be determined by Hox gene expression patterns along the lateral plate mesoderm. This regionalization appears to be regulated independently of that in the paraxial mesoderm and axial skeleton. When combined with current hypotheses of Hox gene phylogenetic and functional diversity, these data suggest a new model of fin/limb developmental evolution. This coordinates body wall regions of outgrowth with primitive bound- aries established in the gut, as well as the fundamental nonequivalence of pectoral and pelvic structures. BioEssays 20:371–381, 1998. 1998 John Wiley & Sons, Inc. Introduction over and again to exemplify fundamental concepts in biological Vertebrate appendages include an amazing diversity of form, theory. The striking uniformity of teleost pectoral fin skeletons from the huge wing-like fins of manta rays or the stumpy limbs of illustrated Geoffroy Saint-Hilair’s discussion of ‘‘special analo- frogfishes, to ichthyosaur paddles, the extraordinary fingers of gies,’’1 while tetrapod limbs exemplified Owen’s2 related concept aye-ayes, and the fin-like wings of penguins. The functional of ‘‘homology’’; Darwin3 then employed precisely the same ex- diversity of these appendages is similarly vast and, in addition to ample as evidence of evolutionary descent from common ances- various modes of locomotion, fins and limbs are also used for try. -
Paleobios 33: 1-9, June 9, 2016 Paleobios
PaleoBios 33: 1-9, June 9, 2016 PaleoBios OFFICIAL PUBLICATION OF THE UNIVERSITY OF CALIFORNIA MUSEUM OF PALEONTOLOGY Patricia A. Holroyd and J. Howard Hutchison (2016). Fauna and setting of the Adelolophus hutchisoni type locality in the Upper Cretaceous (Campanian) Wahweap Formation of Utah Cover photo: Dentary fragment of the bowfin fish cf. Melvius chauliodous in ventral and dorsal view. Citation: Holroyd, P. A. and Hutchison, J. H. 2016. Fauna and setting of the Adelolophus hutchisoni type locality of the Upper Cretaceous (Campa- nian) Wahweap Formation of Utah. PaleoBios, 33. ucmp_paleobios_31196 PaleoBios 33: 1-9, June 9, 2016 Fauna and setting of the Adelolophus hutchisoni type locality in the Upper Cretaceous (Campanian) Wahweap Formation of Utah PATRICIA A. HOLROYD* and J. HOWARD HUTCHISON Museum of Paleontology, 1101 Valley Life Sciences Building, University of California, Berkeley, CA 94720 [email protected] and [email protected] We report new data on the type locality of the hadrosaurid ornithischian Adelolophus hutchisoni Gates et al., 2014 from the Campanian-aged Wahweap Formation of southern Utah, and the remainder of the vertebrate assemblage from the site. The type locality (UCMP V98173) is a previously-reported U.S. Geological Survey locality (USGS D815) and is stratigraphically low in the upper member of the Wahweap Formation. Additional taxa from the same site include acipenseriforms (sturgeon), amiiforms (bowfin), and lepisosteiforms (gar fish), baenid and trionychid turtles, and both theropod and ornithischian dinosaurs. Keywords: Acipenseriformes, Amiiformes, Lepisosteiformes, Testudines, Theropoda, Ornithischia INTRODUCTION from it by a line, as is the typical convention for physically Gates et al. (2014) recently named the new lambeosau- labeling UCMP specimens. -
The Genus Furo (Pisces, Halecomorphi) from the Upper Jurassic Plattenkalke of Germany
ORYCTOS,Vol. 1 :23-35,Octobre 1998 THEGENUS FURO (PISCES, HALECOMORPHI) FROMTHE UPPERJURASSIC PLATTENKALKE OF GERMANY Paul H. LAMBERS PaleontologischeWerkkamer, Biologisch Centrum RUG, Postbus 14,9750 AA Haren, the Netherlands. e-mail: phlambers@ biol.rug.nl Abstract : An overview of the speciesassigned to the genus Furo fowd in the German lithographic limestones of the Solnhofen-area(Bavaria) and Nusplingen (Baden-Wiirttemberg) is presentedand the monophyly of the Upper JurassicFuro is discussed.Six speciescan be recognized: 'F.' latim.anus,'F.' longiserratus, 'F.' microlepidotes, 'E' aldingeri, 'F.' angustus and'F.' miinsteri. Among these 'E' angustus and'F.' miinsteri form a monophyletic group, to which 'F.' aldingeri might be related as well. 'F.' longiserrarus might be closely related to the Ophiopsidae,whereas 'E' microlepidotes shows similarities with the Caturidae. The position of 'F.' latimanus remains to be determined. There are no indications of a monophyletic genusof Furo and the relationshipsof the Upper Jurassicfurids with the Lower Jurassicspecies of Furo remain to be examined. Key words: Eugnathus, Furo, Halecomorphi, phylogeny, Plattenknlke, Tithonian Le genreFuro (Pisces,Halecomorphi) du Jurassiquesupérieur d'Allemagne. Résumé : Les différentes espècesdu genre Furo enprovenancedes gisementsallemands à calcaireslithographiques des régions de Solnhofen (Bavière) et de Nusplingen (Bade-Wiirttemberg)sont présentéeset la monophylie du genre Furo du Jurassiquesupérieur est discutée.Six espècespeuvent être reconnues: '.8' Iatimanus, -
Halecomorphi, Amiidae
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Open Marine Archive BULLETIN DE L’INSTITUT ROYAL DES SCIENCES NATURELLES DE BELGIQUE SCIENCES DE LA TERRE, 80: 163-170, 2010 BULLETIN VAN HET KONINKLIJK BELGISCH INSTITUUT VOOR NATUURWETENSCHAPPEN AARDWETENSCHAPPEN, 80: 163-170, 2010 First fossil record of an amiid fish (Halecomorphi, Amiidae) from the Latest Cretaceous of Patagonia, Argentina, and comments on the status of Pappichthys patagonica AMEGHINO , 1906 (Teleostei, Osteoglossidae) by Sergio BOGAN, Louis TAVERNE & Federico L. AGNOLIN BOG A N , S., TAVERNE , L. & AGNO L IN , F.L., 2010 – First fossil Introduction record of an amiid fish (Halecomorphi, Amiidae) from the Latest Cretaceous of Patagonia, Argentina, and comments on the The Amiiformes are halecomorph fishes represented status of Pappichthys patagonica AMEGHINO , 1906 (Teleostei, Osteoglossidae). Bulletin de l’Institut royal des Sciences naturelles today by the single extant species Amia calva de Belgique, Sciences de la Terre, 80: 163-170, 4 figs, Brussels, LINN A EUS , 1766, the bowfin, which is geographically October 31, 2010 – ISSN 0374-6291. distributed among freshwater lakes and rivers in Eastern North America (NE L SON , 2006: 99). Abstract This large predaceous fish constitutes a relict of a taxonomic group widely distributed among most We describe the first authenticated fossil record for the family continents during the Mesozoic and the Caenozoic. Amiidae in Argentina. The specimen consists on an isolated dentary coming from the Uppermost Cretaceous Allen Formation, from Río The first record for the Amiiformes occurs in the Late Negro province, Patagonia, Argentina, and belonging probably Triassic (Norian), whereas the oldest record of the to the genus Amia. -
Body-Shape Diversity in Triassic–Early Cretaceous Neopterygian fishes: Sustained Holostean Disparity and Predominantly Gradual Increases in Teleost Phenotypic Variety
Body-shape diversity in Triassic–Early Cretaceous neopterygian fishes: sustained holostean disparity and predominantly gradual increases in teleost phenotypic variety John T. Clarke and Matt Friedman Comprising Holostei and Teleostei, the ~32,000 species of neopterygian fishes are anatomically disparate and represent the dominant group of aquatic vertebrates today. However, the pattern by which teleosts rose to represent almost all of this diversity, while their holostean sister-group dwindled to eight extant species and two broad morphologies, is poorly constrained. A geometric morphometric approach was taken to generate a morphospace from more than 400 fossil taxa, representing almost all articulated neopterygian taxa known from the first 150 million years— roughly 60%—of their history (Triassic‒Early Cretaceous). Patterns of morphospace occupancy and disparity are examined to: (1) assess evidence for a phenotypically “dominant” holostean phase; (2) evaluate whether expansions in teleost phenotypic variety are predominantly abrupt or gradual, including assessment of whether early apomorphy-defined teleosts are as morphologically conservative as typically assumed; and (3) compare diversification in crown and stem teleosts. The systematic affinities of dapediiforms and pycnodontiforms, two extinct neopterygian clades of uncertain phylogenetic placement, significantly impact patterns of morphological diversification. For instance, alternative placements dictate whether or not holosteans possessed statistically higher disparity than teleosts in the Late Triassic and Jurassic. Despite this ambiguity, all scenarios agree that holosteans do not exhibit a decline in disparity during the Early Triassic‒Early Cretaceous interval, but instead maintain their Toarcian‒Callovian variety until the end of the Early Cretaceous without substantial further expansions. After a conservative Induan‒Carnian phase, teleosts colonize (and persistently occupy) novel regions of morphospace in a predominantly gradual manner until the Hauterivian, after which expansions are rare. -
Giant Fossil Coelacanths from the Late Cretaceous of the Eastern
^rfij^i^v^^™, - » v ' - - 4 j/ N ^P"" ,- V ^™ V- -*^ >•;:-* ' ^ * -r;' David R. Schwimmer, Geologist, Columbus State University Introduction In Autumn, 1987, a sizeable mass of fossil bone was discovered by amateur collectors in the bed of a small creek in eastern Alabama. The bone-bearing rock, some 300 kg in weight, was collected by a party led by G. Dent Williams and transferred to the paleontology laboratory at Columbus State University. Williams prepared most of the material using air percussion tools, and I further cleared some bones with acetic acid. A mandible (lower jaw bone) of 502 mm length was the first bone prepared from the material. It strangely lacked evidence of both teeth and tooth sockets, and it was covered medially with coarse denticulation resembling #40 grit sandpaper. The jawbone conformed with no recognizable North American Late Cretaceous fish or four-legged animal, and, given the large size of the mandible, my initial search for an identification ranged from ankylosaurid dinosaurs, to mosasaurs, to the larger contemporary fish, such as Xiphactinus. Nothing known in the Late Cretaceous of North America matched the mandible nor any other bone which was subsequently prepared from this matrix. J.D. Stewart of the L.A. County Museum was prior fossil record of a North American coelacanth is concurrently studying fossils of small marine Diplurus newarki, from freshwater deposits of earliest coelacanths from the Late Cretaceous of western Kansas, Jurassic age (ca. 205 Myr.: Schaeffer, 1941, 1952). USA (which were also a new discovery at the time: see Forey (1981) and Maisey (1991) recognized two sub- Stewart et al., 1991). -
I Ecomorphological Change in Lobe-Finned Fishes (Sarcopterygii
Ecomorphological change in lobe-finned fishes (Sarcopterygii): disparity and rates by Bryan H. Juarez A thesis submitted in partial fulfillment of the requirements for the degree of Master of Science (Ecology and Evolutionary Biology) in the University of Michigan 2015 Master’s Thesis Committee: Assistant Professor Lauren C. Sallan, University of Pennsylvania, Co-Chair Assistant Professor Daniel L. Rabosky, Co-Chair Associate Research Scientist Miriam L. Zelditch i © Bryan H. Juarez 2015 ii ACKNOWLEDGEMENTS I would like to thank the Rabosky Lab, David W. Bapst, Graeme T. Lloyd and Zerina Johanson for helpful discussions on methodology, Lauren C. Sallan, Miriam L. Zelditch and Daniel L. Rabosky for their dedicated guidance on this study and the London Natural History Museum for courteously providing me with access to specimens. iii TABLE OF CONTENTS ACKNOWLEDGEMENTS ii LIST OF FIGURES iv LIST OF APPENDICES v ABSTRACT vi SECTION I. Introduction 1 II. Methods 4 III. Results 9 IV. Discussion 16 V. Conclusion 20 VI. Future Directions 21 APPENDICES 23 REFERENCES 62 iv LIST OF TABLES AND FIGURES TABLE/FIGURE II. Cranial PC-reduced data 6 II. Post-cranial PC-reduced data 6 III. PC1 and PC2 Cranial and Post-cranial Morphospaces 11-12 III. Cranial Disparity Through Time 13 III. Post-cranial Disparity Through Time 14 III. Cranial/Post-cranial Disparity Through Time 15 v LIST OF APPENDICES APPENDIX A. Aquatic and Semi-aquatic Lobe-fins 24 B. Species Used In Analysis 34 C. Cranial and Post-Cranial Landmarks 37 D. PC3 and PC4 Cranial and Post-cranial Morphospaces 38 E. PC1 PC2 Cranial Morphospaces 39 1-2.