Literature DB >> 22804777

Development and evolution of the vertebrate primary mouth.

Vladimír Soukup1, Ivan Horácek, Robert Cerny.   

Abstract

The vertebrate oral region represents a key interface between outer and inner environments, and its structural and functional design is among the limiting factors for survival of its owners. Both formation of the respective oral opening (primary mouth) and establishment of the food-processing apparatus (secondary mouth) require interplay between several embryonic tissues and complex embryonic rearrangements. Although many aspects of the secondary mouth formation, including development of the jaws, teeth or taste buds, are known in considerable detail, general knowledge about primary mouth formation is regrettably low. In this paper, primary mouth formation is reviewed from a comparative point of view in order to reveal its underestimated morphogenetic diversity among, and also within, particular vertebrate clades. In general, three main developmental modes were identified. The most common is characterized by primary mouth formation via a deeply invaginated ectodermal stomodeum and subsequent rupture of the bilaminar oral membrane. However, in salamander, lungfish and also in some frog species, the mouth develops alternatively via stomodeal collar formation contributed both by the ecto- and endoderm. In ray-finned fishes, on the other hand, the mouth forms via an ectoderm wedge and later horizontal detachment of the initially compressed oral epithelia with probably a mixed germ-layer derivation. A very intriguing situation can be seen in agnathan fishes: whereas lampreys develop their primary mouth in a manner similar to the most common gnathostome pattern, hagfishes seem to undergo a unique oropharyngeal morphogenesis when compared with other vertebrates. In discussing the early formative embryonic correlates of primary mouth formation likely to be responsible for evolutionary-developmental modifications of this area, we stress an essential role of four factors: first, positioning and amount of yolk tissue; closely related to, second, endoderm formation during gastrulation, which initiates the process and constrains possible evolutionary changes within this area; third, incipient structure of the stomodeal primordium at the anterior neural plate border, where the ectoderm component of the prospective primary mouth is formed; and fourth, the prime role of Pitx genes for establishment and later morphogenesis of oral region both in vertebrates and non-vertebrate chordates.
© 2012 The Authors. Journal of Anatomy © 2012 Anatomical Society.

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Year:  2012        PMID: 22804777      PMCID: PMC3552417          DOI: 10.1111/j.1469-7580.2012.01540.x

Source DB:  PubMed          Journal:  J Anat        ISSN: 0021-8782            Impact factor:   2.610


  112 in total

1.  Pitx2 regulates lung asymmetry, cardiac positioning and pituitary and tooth morphogenesis.

Authors:  C R Lin; C Kioussi; S O'Connell; P Briata; D Szeto; F Liu; J C Izpisúa-Belmonte; M G Rosenfeld
Journal:  Nature       Date:  1999-09-16       Impact factor: 49.962

2.  Monophyly of lampreys and hagfishes supported by nuclear DNA-coded genes.

Authors:  S Kuraku; D Hoshiyama; K Katoh; H Suga; T Miyata
Journal:  J Mol Evol       Date:  1999-12       Impact factor: 2.395

3.  Pharyngeal arch patterning in the absence of neural crest.

Authors:  E Veitch; J Begbie; T F Schilling; M M Smith; A Graham
Journal:  Curr Biol       Date:  1999 Dec 16-30       Impact factor: 10.834

4.  Role of the Bicoid-related homeodomain factor Pitx1 in specifying hindlimb morphogenesis and pituitary development.

Authors:  D P Szeto; C Rodriguez-Esteban; A K Ryan; S M O'Connell; F Liu; C Kioussi; A S Gleiberman; J C Izpisúa-Belmonte; M G Rosenfeld
Journal:  Genes Dev       Date:  1999-02-15       Impact factor: 11.361

5.  Antagonistic signals between BMP4 and FGF8 define the expression of Pitx1 and Pitx2 in mouse tooth-forming anlage.

Authors:  T R St Amand; Y Zhang; E V Semina; X Zhao; Y Hu; L Nguyen; J C Murray; Y Chen
Journal:  Dev Biol       Date:  2000-01-15       Impact factor: 3.582

6.  Xpitx-1: a homeobox gene expressed during pituitary and cement gland formation of Xenopus embryos.

Authors:  T Hollemann; T Pieler
Journal:  Mech Dev       Date:  1999-11       Impact factor: 1.882

7.  Function of Rieger syndrome gene in left-right asymmetry and craniofacial development.

Authors:  M F Lu; C Pressman; R Dyer; R L Johnson; J F Martin
Journal:  Nature       Date:  1999-09-16       Impact factor: 49.962

8.  Pituitary homeobox 1 (Ptx1) is differentially expressed during pituitary development.

Authors:  C Lanctôt; Y Gauthier; J Drouin
Journal:  Endocrinology       Date:  1999-03       Impact factor: 4.736

9.  Dosage requirement of Pitx2 for development of multiple organs.

Authors:  P J Gage; H Suh; S A Camper
Journal:  Development       Date:  1999-10       Impact factor: 6.868

10.  Hindlimb patterning and mandible development require the Ptx1 gene.

Authors:  C Lanctôt; A Moreau; M Chamberland; M L Tremblay; J Drouin
Journal:  Development       Date:  1999-05       Impact factor: 6.868

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  24 in total

1.  Morphological study of the asymmetrical buccal cavity of the flatfish common solea (Solea solea) and its relation to the type of feeding.

Authors:  Neveen El Said Reda El Bakary
Journal:  Asian Pac J Trop Biomed       Date:  2014-01

2.  Craniofacial development of hagfishes and the evolution of vertebrates.

Authors:  Yasuhiro Oisi; Kinya G Ota; Shigehiro Kuraku; Satoko Fujimoto; Shigeru Kuratani
Journal:  Nature       Date:  2012-12-19       Impact factor: 49.962

3.  The inner opercular membrane of the euryhaline teleost: a useful surrogate model for comparisons of different characteristics of ionocytes between seawater- and freshwater-acclimated medaka.

Authors:  Chao-Kai Kang; Shu-Yuan Yang; Shang-Tao Lin; Tsung-Han Lee
Journal:  Histochem Cell Biol       Date:  2014-08-28       Impact factor: 4.304

4.  Migratory patterns and evolutionary plasticity of cranial neural crest cells in ray-finned fishes.

Authors:  Jan Stundl; Anna Pospisilova; Tereza Matějková; Martin Psenicka; Marianne E Bronner; Robert Cerny
Journal:  Dev Biol       Date:  2020-08-21       Impact factor: 3.582

Review 5.  Dynamic epithelia of the developing vertebrate face.

Authors:  Chong Pyo Choe; J Gage Crump
Journal:  Curr Opin Genet Dev       Date:  2015-03-03       Impact factor: 5.578

6.  Role of JNK during buccopharyngeal membrane perforation, the last step of embryonic mouth formation.

Authors:  Nathalie S Houssin; Navaneetha Krishnan Bharathan; Stephen D Turner; Amanda J G Dickinson
Journal:  Dev Dyn       Date:  2016-12-29       Impact factor: 3.780

7.  E-liquids and vanillin flavoring disrupts retinoic acid signaling and causes craniofacial defects in Xenopus embryos.

Authors:  Amanda J G Dickinson; Stephen D Turner; Stacey Wahl; Allyson E Kennedy; Brent H Wyatt; Deborah A Howton
Journal:  Dev Biol       Date:  2021-09-17       Impact factor: 3.582

8.  Pre-oral gut contributes to facial structures in non-teleost fishes.

Authors:  Martin Minarik; Jan Stundl; Peter Fabian; David Jandzik; Brian D Metscher; Martin Psenicka; David Gela; Adriana Osorio-Pérez; Lenin Arias-Rodriguez; Ivan Horácek; Robert Cerny
Journal:  Nature       Date:  2017-07-05       Impact factor: 49.962

9.  Hedgehog activity controls opening of the primary mouth.

Authors:  Jacqueline M Tabler; Trióna G Bolger; John Wallingford; Karen J Liu
Journal:  Dev Biol       Date:  2014-10-07       Impact factor: 3.582

Review 10.  Developing a sense of taste.

Authors:  Marika Kapsimali; Linda A Barlow
Journal:  Semin Cell Dev Biol       Date:  2012-11-24       Impact factor: 7.727

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