Cells containing aragonite crystals mediate responses to gravity in Trichoplax adhaerens (Placozoa), an animal lacking neurons and synapses
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M. Aronova | R. Leapman | C. Winters | T. Reese | Carolyn L. Smith | T. Mayorova | N. Pivovarova | K. Hammar
[1] T. Reese,et al. Neuropeptidergic integration of behavior in Trichoplax adhaerens, an animal without synapses , 2017, Journal of Experimental Biology.
[2] V. Hartenstein,et al. Xenacoelomorpha Nervous Systems , 2017 .
[3] A. Zhuravlev,et al. First macrobiota biomineralization was environmentally triggered , 2017, Proceedings of the Royal Society B: Biological Sciences.
[4] M. E. Hahn,et al. Diversity as Opportunity: Insights from 600 Million Years of AHR Evolution. , 2017, Current opinion in toxicology.
[5] W. Kristan. Early evolution of neurons , 2016, Current Biology.
[6] D. Erwin. Early metazoan life: divergence, environment and ecology , 2015, Philosophical Transactions of the Royal Society B: Biological Sciences.
[7] T. Reese,et al. Coordinated Feeding Behavior in Trichoplax, an Animal without Synapses , 2015, PloS one.
[8] T. Kadowaki,et al. Evolution of TRP channels inferred by their classification in diverse animal species. , 2015, Molecular phylogenetics and evolution.
[9] Todd H. Oakley,et al. The shell-eyes of the chiton Acanthopleura granulata (Mollusca, Polyplacophora) use pheomelanin as a screening pigment , 2014 .
[10] S. Tamm. Formation of the Statolith in the Ctenophore Mnemiopsis leidyi , 2014, The Biological Bulletin.
[11] C. Winters,et al. Novel Cell Types, Neurosecretory Cells, and Body Plan of the Early-Diverging Metazoan Trichoplax adhaerens , 2014, Current Biology.
[12] N. Pivovarova,et al. Measurement of total calcium in neurons by electron probe X-ray microanalysis. , 2013, Journal of visualized experiments : JoVE.
[13] P. Martinez,et al. The nervous system of Isodiametra pulchra (Acoela) with a discussion on the neuroanatomy of the Xenacoelomorpha and its evolutionary implications , 2012, Frontiers in Zoology.
[14] S. Johnsen,et al. A Chiton Uses Aragonite Lenses to Form Images , 2011, Current Biology.
[15] C. Jacobsen,et al. Carbon K-edge spectra of carbonate minerals. , 2010, Journal of synchrotron radiation.
[16] Daniel A. Fletcher,et al. Cell mechanics and the cytoskeleton , 2010, Nature.
[17] M. Aronova. Structural models of “simple” sense organs by the example of the first Metazoa , 2009, Journal of Evolutionary Biochemistry and Physiology.
[18] L. Staehelin,et al. Statolith Sedimentation Kinetics and Force Transduction to the Cortical Endoplasmic Reticulum in Gravity-Sensing Arabidopsis Columella Cells[W][OA] , 2009, The Plant Cell Online.
[19] Nicholas H. Putnam,et al. The Trichoplax genome and the nature of placozoans , 2008, Nature.
[20] R. Hill,et al. Seawater Mg/Ca controls polymorph mineralogy of microbial CaCO3: A potential proxy for calcite‐aragonite seas in Precambrian time , 2008, Geobiology.
[21] M. Davis,et al. Protons Act as a Transmitter for Muscle Contraction in C. elegans , 2008, Cell.
[22] O. Voigt,et al. Field biology of placozoans (Trichoplax): distribution, diversity, biotic interactions. , 2007, Integrative and comparative biology.
[23] S. Porter. Seawater Chemistry and Early Carbonate Biomineralization , 2007, Science.
[24] M. Braun,et al. Gravity‐sensing and gravity‐related signaling pathways in unicellular model systems of protists and plants , 2006 .
[25] M. Epple,et al. Calcium sulfate hemihydrate (bassanite) statoliths in the cubozoan Carybdea sp. , 2006 .
[26] Matthias Epple,et al. Calcium sulfate hemihydrate is the inorganic mineral in statoliths of Scyphozoan medusae (Cnidaria). , 2005, Dalton transactions.
[27] A. Knoll. Biomineralization and Evolutionary History , 2003 .
[28] M. Epple,et al. Calcium sulfate hemihydrate in statoliths of deep-sea medusae , 2002 .
[29] G. Horváth,et al. Image formation by bifocal lenses in a trilobite eye? , 2000, Vision Research.
[30] T. Ueda,et al. Dynamic patterns in the locomotion and feeding behaviors by the placozoan Trichoplax adhaerence. , 1999, Bio Systems.
[31] B. Boyan,et al. A mechanism of adaptation to hypergravity in the statocyst of Aplysia californica , 1996, Hearing Research.
[32] B. Sperlágh,et al. Neuronal synthesis, storage and release of ATP , 1996 .
[33] A. Ruthmann,et al. The Mesenchyme-Like Layer of the Fiber Cells of Trichoplax adhaerens (Placozoa), a Syncytium , 1995 .
[34] Richard L. Miller,et al. Birefringent Granules in Placozoans (Trichoplax adhaerens) , 1994 .
[35] U. Ehlers. Comparative morphology of statocysts in the Plathelminthes and the Xenoturbellida , 1991, Hydrobiologia.
[36] A. Ruthmann,et al. The ventral epithelium of Trichoplax adhaerens (Placozoa): Cytoskeletal structures, cell contacts and endocytosis , 1986, Zoomorphology.
[37] T. Fenchel,et al. The Structure and Function of Müller Vesicles in Loxodid Ciliates1 , 1986 .
[38] E. Ferrero,et al. An Ultrastructural Account of Otoplanid Turbellaria Neuroanatomy II. The statocyst design: evolutionary and functional implications , 1985 .
[39] U. Ehlers,et al. Ultrastruktur der Statocyste von Ototyphlonemertes pallida (Keferstein, 1862) (Nemertini) , 1981, Zoomorphology.
[40] J. Rassat,et al. Trichoplax adhaerens F.E. Schulze (placozoa) in the scanning electron microscope , 1979, Zoomorphologie.
[41] H. Nakahara,et al. An electron microscope study of crystal calcium carbonate formation in the mouse otolith , 1979, The Anatomical record.
[42] Robert A. Berner,et al. The role of magnesium in the crystal growth of calcite and aragonite from sea water , 1975 .
[43] E. Ferrero. A Fine Structural Analysis of the Statocyst in Turbellaria Acoela , 1973 .
[44] R. D. Campbell. Statocyst lacking Cilia in the Coelenterate Corymorpha palma , 1972, Nature.
[45] R. M. Eakin,et al. Ultrastructure of sensory receptors in ascidian tadpoles , 1970, Zeitschrift für Zellforschung und Mikroskopische Anatomie.
[46] R. Haedrich,et al. Molecular structure and composition of fish otoliths , 1969 .
[47] R. Croll,et al. Trichoplax adhaerens, an enigmatic basal metazoan with potential. , 2014, Methods in molecular biology.
[48] T. Furuichi,et al. Mechanosensitive channels are activated by stress in the actin stress fibres, and could be involved in gravity sensing in plants. , 2014, Plant biology.
[49] P. Masson,et al. Gravity sensing and signal transduction in vascular plant primary roots. , 2013, American journal of botany.
[50] M. Toyota,et al. Gravitropism and mechanical signaling in plants. , 2013, American journal of botany.
[51] Cronstedtite,et al. Use of electron-energy loss near-edge fine structure in the study of minerals , 2007 .
[52] A. Sievers,et al. Centrifugation causes adaptation of microfilaments Studies on the transport of statoliths in gravity sensingChara rhizoids , 2005, Protoplasma.
[53] D. Häder,et al. Gravitational sensory transduction chain in flagellates , 2005 .
[54] C. L. Singla,et al. Statocysts of hydromedusae , 2004, Cell and Tissue Research.
[55] F. Marmo,et al. Calcite in the statoconia of amphibians: A detailed analysis in the frog Rana esculenta , 2004, Cell and Tissue Research.
[56] M. Lebert,et al. Graviperception and gravitaxis in algae. , 2001, Advances in space research : the official journal of the Committee on Space Research.
[57] K. Rohde,et al. Ultrastructure of the statocyst in an undescribed species of Luridae (Platyhelminthes: Rhabdocoela: Luridae) , 1993 .
[58] R. Hanlon,et al. Strontium is required for statolith development and thus normal swimming behaviour of hatchling cephalopods. , 1989, The Journal of experimental biology.
[59] B. Budelmann,et al. Morphological Diversity of Equilibrium Receptor Systems in Aquatic Invertebrates , 1988 .
[60] T. Barrette,et al. Calcitic microlenses as part of the photoreceptor system in brittlestars , 2022 .