Reafference and the origin of the self in early nervous system evolution
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[1] Kirsty Y. Wan,et al. Origins of eukaryotic excitability , 2020, Philosophical Transactions of the Royal Society B.
[2] Caenorhabditis elegans body wall muscles sense mechanical signals with an amiloride-sensitive cation channel. , 2020, Biochemical and biophysical research communications.
[3] Manuel Zimmer,et al. Brain-wide representations of ongoing behavior: a universal principle? , 2020, Current Opinion in Neurobiology.
[4] P. Funch,et al. Contraction-Expansion and the Effects on the Aquiferous System in the Demosponge Halichondria panicea , 2020, Frontiers in Marine Science.
[5] Liangliang Wang,et al. Mechanoreception for Soft Robots via Intuitive Body Cues , 2020, Soft robotics.
[6] Luis A Bezares-Calderón,et al. Diversity of cilia-based mechanosensory systems and their functions in marine animal behaviour , 2019, Philosophical Transactions of the Royal Society B.
[7] A. Senatore,et al. Transcriptome profiling of Trichoplax adhaerens highlights its digestive epithelium and a rich set of genes for fast electrogenic and slow neuromodulatory cellular signaling , 2019 .
[8] J. Liao,et al. Efferent Modulation of Spontaneous Lateral Line Activity During and after Zebrafish Motor Commands , 2019, bioRxiv.
[9] Rafael Yuste,et al. Mapping the Whole-Body Muscle Activity of Hydra vulgaris , 2019, Current Biology.
[10] Ashok Litwin-Kumar,et al. A Drosophila larval premotor/motor neuron connectome generating two behaviors via distinct spatio-temporal muscle activity , 2019, bioRxiv.
[11] G. Edgecombe,et al. Cambrian Sessile, Suspension Feeding Stem-Group Ctenophores and Evolution of the Comb Jelly Body Plan , 2019, Current Biology.
[12] Mirna Mihovilovic Skanata,et al. Direction Selectivity in Drosophila Proprioceptors Requires the Mechanosensory Channel Tmc , 2019, Current Biology.
[13] T. Liu,et al. Piezo-like Gene Regulates Locomotion in Drosophila Larvae. , 2019, Cell reports.
[14] W. Grueber,et al. Characterization of Proprioceptive System Dynamics in Behaving Drosophila Larvae Using High-Speed Volumetric Microscopy , 2018, Current Biology.
[15] A. Mamiya,et al. Neural Coding of Leg Proprioception in Drosophila , 2018, Neuron.
[16] Manu Prakash,et al. Ultrafast epithelial contractions provide insights into contraction speed limits and tissue integrity , 2018, Proceedings of the National Academy of Sciences.
[17] Claire Wyart,et al. Active mechanosensory feedback during locomotion in the zebrafish spinal cord , 2018, Current Opinion in Neurobiology.
[18] Jenna R. Sternberg,et al. Pkd2l1 is required for mechanoception in cerebrospinal fluid-contacting neurons and maintenance of spine curvature , 2018, Nature Communications.
[19] Thomas Ranner,et al. Signatures of proprioceptive control in Caenorhabditis elegans locomotion , 2018, Philosophical Transactions of the Royal Society B: Biological Sciences.
[20] R. Satterlie,et al. Tentacle Musculature in the Cubozoan Jellyfish Carybdea marsupialis , 2018, The Biological Bulletin.
[21] Hyun-Ho Lim,et al. A sensory-motor neuron type mediates proprioceptive coordination of steering in C. elegans via two TRPC channels , 2018, PLoS biology.
[22] G. Jékely,et al. Neural circuitry of a polycystin-mediated hydrodynamic startle response for predator avoidance , 2018, bioRxiv.
[23] M. Aronova,et al. Cells containing aragonite crystals mediate responses to gravity in Trichoplax adhaerens (Placozoa), an animal lacking neurons and synapses , 2018, PloS one.
[24] Jean-Baptiste Mouret,et al. Adaptive and Resilient Soft Tensegrity Robots , 2017, Soft robotics.
[25] R. Yuste,et al. Non-overlapping Neural Networks in Hydra vulgaris , 2017, Current Biology.
[26] S. Leys,et al. The energetic cost of filtration by demosponges and their behavioural response to ambient currents , 2017, Journal of Experimental Biology.
[27] S. Leys. Respiration and Excurrent Velocity DATA for 5 demosponges - Data associated with: Ludeman, Reidenbach and Leys, JEB 2017 The energetic cost of filtration by demosponges and their behavioural response to ambient currents , 2017 .
[28] Seungwan Ryu,et al. Soft robot review , 2017 .
[29] Gyu Hyun Kim,et al. Tentonin 3/TMEM150c Confers Distinct Mechanosensitive Currents in Dorsal-Root Ganglion Neurons with Proprioceptive Function , 2016, Neuron.
[30] R. Kuner,et al. A critical role for Piezo2 channels in the mechanotransduction of mouse proprioceptive neurons , 2016, Scientific Reports.
[31] Robert H Wurtz,et al. Saccadic Corollary Discharge Underlies Stable Visual Perception , 2016, The Journal of Neuroscience.
[32] N. Randel,et al. Phototaxis and the origin of visual eyes , 2015, bioRxiv.
[33] C. T. Howard. The Importance of Being Active , 2016 .
[34] T. Jessell,et al. Piezo2 is the principal mechanotransduction channel for proprioception , 2015, Nature Neuroscience.
[35] P. Godfrey‐Smith,et al. An Option Space for Early Neural Evolution , 2015, bioRxiv.
[36] Anmo J Kim,et al. Cellular evidence for efference copy in Drosophila visuomotor processing , 2015, Nature Neuroscience.
[37] E. Bornberg-Bauer,et al. The Rise and Fall of TRP-N, an Ancient Family of Mechanogated Ion Channels, in Metazoa , 2015, Genome biology and evolution.
[38] B. Baum,et al. Tug of war--the influence of opposing physical forces on epithelial cell morphology. , 2015, Developmental biology.
[39] F. Keijzer. Moving and sensing without input and output: early nervous systems and the origins of the animal sensorimotor organization , 2015, Biology & Philosophy.
[40] T. Kadowaki,et al. Evolution of TRP channels inferred by their classification in diverse animal species. , 2015, Molecular phylogenetics and evolution.
[41] L. Moroz. Convergent evolution of neural systems in ctenophores , 2015, Journal of Experimental Biology.
[42] S. Leys. Elements of a ‘nervous system’ in sponges , 2015, Journal of Experimental Biology.
[43] R. de Nys,et al. Larval Settlement: The Role of Surface Topography for Sessile Coral Reef Invertebrates , 2015, PloS one.
[44] A. Gomis. TRP Channels and Mechanical Transduction , 2015 .
[45] James J. Gibson,et al. The Ecological Approach to Visual Perception: Classic Edition , 2014 .
[46] J. Hammel,et al. A New Flow-Regulating Cell Type in the Demosponge Tethya wilhelma – Functional Cellular Anatomy of a Leuconoid Canal System , 2014, PloS one.
[47] S. Arber,et al. Degradation of mouse locomotor pattern in the absence of proprioceptive sensory feedback , 2014, Proceedings of the National Academy of Sciences.
[48] Michael T Turvey,et al. The Medium of Haptic Perception: A Tensegrity Hypothesis , 2014, Journal of motor behavior.
[49] S. Tamm. Cilia and the life of ctenophores , 2014 .
[50] S. Leys,et al. Evolutionary origins of sensation in metazoans: functional evidence for a new sensory organ in sponges , 2014, BMC Evolutionary Biology.
[51] C. Bond. Locomotion and contraction in an asconoid calcareous sponge , 2013 .
[52] Yun Zhang,et al. Complex RIA calcium dynamics and its function in navigational behavior , 2013, Worm.
[53] Fred Keijzer,et al. What nervous systems do: early evolution, input–output, and the skin brain thesis , 2013, Adapt. Behav..
[54] A. Collins,et al. Cnidarian phylogenetic relationships as revealed by mitogenomics , 2013, BMC Evolutionary Biology.
[55] M. Hendricks,et al. Compartmentalized calcium dynamics in a C. elegans interneuron encode head movement , 2012, Nature.
[56] W. Kier. The diversity of hydrostatic skeletons , 2012, Journal of Experimental Biology.
[57] Jeffrey S. Guasto,et al. Fluid Mechanics of Planktonic Microorganisms , 2012 .
[58] J. O'Regan,et al. Discussion of J. Kevin O’Regan’s “Why Red Doesn’t Sound Like a Bell: Understanding the Feel of Consciousness” , 2011, Review of Philosophy and Psychology.
[59] Manuela Schmidt,et al. Piezo1 and Piezo2 Are Essential Components of Distinct Mechanically Activated Cation Channels , 2010, Science.
[60] K. Drescher,et al. Direct measurement of the flow field around swimming microorganisms. , 2010, Physical review letters.
[61] Jeffrey S. Guasto,et al. Oscillatory Flows Induced by Microoganisms Swimming in Two Dimensions , 2022 .
[62] William R. Schafer,et al. C. elegans TRP Family Protein TRP-4 Is a Pore-Forming Subunit of a Native Mechanotransduction Channel , 2010, Neuron.
[63] L. Looger,et al. The Role of the TRP Channel NompC in Drosophila Larval and Adult Locomotion , 2010, Neuron.
[64] D. Grünbaum,et al. Morphology–flow interactions lead to stage-selective vertical transport of larval sand dollars in shear flow , 2010, Journal of Experimental Biology.
[65] Frederick Sachs,et al. Stretch-activated ion channels: what are they? , 2010, Physiology.
[66] Karl J. Friston. The free-energy principle: a unified brain theory? , 2010, Nature Reviews Neuroscience.
[67] G. Jékely. Evolution of phototaxis , 2009, Philosophical Transactions of the Royal Society B: Biological Sciences.
[68] M. Welsh,et al. TRPA channels distinguish gravity sensing from hearing in Johnston's organ , 2009, Proceedings of the National Academy of Sciences.
[69] Hidehiko K. Inagaki,et al. The neural basis of Drosophila gravity-sensing and hearing , 2009, Nature.
[70] Mark A. Frye,et al. Invertebrate solutions for sensing gravity , 2009, Current Biology.
[71] N. Holland,et al. The origin and migration of the earliest‐developing sensory neurons in the peripheral nervous system of amphioxus , 2009, Evolution & development.
[72] B. Geiger,et al. Environmental sensing through focal adhesions , 2009, Nature Reviews Molecular Cell Biology.
[73] H. Hausen,et al. Mechanism of phototaxis in marine zooplankton , 2008, Nature.
[74] M. Sommer,et al. Corollary discharge across the animal kingdom , 2008, Nature Reviews Neuroscience.
[75] S. Leys,et al. Coordinated contractions effectively expel water from the aquiferous system of a freshwater sponge , 2007, Journal of Experimental Biology.
[76] U. Windhorst. Muscle proprioceptive feedback and spinal networks , 2007, Brain Research Bulletin.
[77] A. Cohen,et al. Larval lampreys possess a functional lateral line system , 2007, Journal of Comparative Physiology A.
[78] Rolf Pfeifer,et al. How the body shapes the way we think - a new view on intelligence , 2006 .
[79] Olaf Sporns,et al. Mapping Information Flow in Sensorimotor Networks , 2006, PLoS Comput. Biol..
[80] D. Ingber,et al. Cellular mechanotransduction: putting all the pieces together again , 2006, FASEB journal : official publication of the Federation of American Societies for Experimental Biology.
[81] P. Sternberg,et al. A C. elegans stretch receptor neuron revealed by a mechanosensitive TRP channel homologue , 2006, Nature.
[82] R. Meech,et al. Physiology of coordination in sponges , 2006 .
[83] Lars Gislén,et al. Advanced optics in a jellyfish eye , 2005, Nature.
[84] J. M. Locke. Ultrastructure of the statocyst of the marine enchytraeid Grania americana (Annelida: Clitellata) , 2005 .
[85] B. Merker. The liabilities of mobility: A selection pressure for the transition to consciousness in animal evolution , 2005, Consciousness and Cognition.
[86] Anna V. Filippova,et al. Muscular system in polychaetes (Annelida) , 2005, Hydrobiologia.
[87] Michael Nickel,et al. Kinetics and rhythm of body contractions in the sponge Tethya wilhelma (Porifera: Demospongiae) , 2004, Journal of Experimental Biology.
[88] Susan Hurley,et al. Perception And Action: Alternative Views , 2001, Synthese.
[89] Hans-Joachim Bischof,et al. Gravity reception in crickets: The influence of cereal and antennal afferences on the head position , 1983, Journal of comparative physiology.
[90] H. Bischof. Die keulenförmigen Sensillen auf den Cerci der GrilleGryllus bimaculatus als Schwererezeptoren , 1975, Journal of comparative physiology.
[91] D. J. Peteya. A possible proprioceptor in Ceriantheopsis americanus (cnidaria, ceriantharia) , 1973, Zeitschrift für Zellforschung und Mikroskopische Anatomie.
[92] G. Purschke. Sense organs in polychaetes (Annelida) , 2005, Hydrobiologia.
[93] C. L. Singla. Fine structure of the sensory receptors of Aglantha digitale (Hydromedusae: Trachylina) , 2004, Cell and Tissue Research.
[94] F. Chia,et al. Fine structural study of the statocysts in the veliger larva of the nudibranch, Rostanga pulchra , 2004, Cell and Tissue Research.
[95] C. L. Singla,et al. Statocysts of hydromedusae , 2004, Cell and Tissue Research.
[96] G. N. Orlovsky,et al. Control of locomotion in marine mollusc Clione limacina , 2004, Experimental Brain Research.
[97] E. Holst,et al. Das Reafferenzprinzip , 2004, Naturwissenschaften.
[98] Y. Arshavsky,et al. Dual sensory-motor function for a molluskan statocyst network. , 2004, Journal of neurophysiology.
[99] S. Tamm,et al. Novel bridge of axon‐like processes of epithelial cells in the aboral sense organ of ctenophores , 2002, Journal of morphology.
[100] C. Zuker,et al. A Drosophila mechanosensory transduction channel. , 2000, Science.
[101] S. Tyler,et al. Functional morphology of musculature in the acoelomate worm, Convoluta pulchra (Plathelminthes) , 1999, Zoomorphology.
[102] B. C,et al. Tensegrity and mechanoregulation : from skeleton to cytoskeleton , 1999 .
[103] A. Damasio. The Feeling of What Happens: Body and Emotion in the Making of Consciousness , 1999 .
[104] M. Srinivasan. Insects as Gibsonian Animals , 1998 .
[105] William H. Warren,et al. Visually Controlled Locomotion: 40 years Later , 1998 .
[106] J. Panksepp. The periconscious substrates of consciousness: Affective states and the evolutionary origins of the self. , 1998 .
[107] T. Matheson,et al. Chordotonal Organs of Insects , 1998 .
[108] Randall D. Beer,et al. The brain has a body: adaptive behavior emerges from interactions of nervous system, body and environment , 1997, Trends in Neurosciences.
[109] A. Abelson. SETTLEMENT IN FLOW: UPSTREAM EXPLORATION OF SUBSTRATA BY WEAKLY SWIMMING LARVAE , 1997 .
[110] Y. Arshavsky,et al. Control of locomotion in marine mollusk Clione Limacina. IX. Neuronal mechanisms of spatial orientation. , 1995, Journal of neurophysiology.
[111] O. Grüsser,et al. On the history of the ideas of efference copy and reafference. , 1995, Clio medica.
[112] G. Mackie. The Elementary Nervous System Revisited , 1990 .
[113] C. Janse,et al. Intracellularly recorded responses to tilt and efferent input of statocyst sensory cells in the pulmonate snail Lymnaea stagnalis , 1988 .
[114] H. Berg. Random Walks in Biology , 2018 .
[115] M. Koehl,et al. Copepod feeding currents: Food capture at low Reynolds number1 , 1981 .
[116] P. Mill. Structure and Function of Proprioceptors in the Invertebrates , 1976 .
[117] W. T. Powers. Behavior, the control of perception , 1973 .
[118] H. G. Wolff. Multi‐directional sensitivity of statocyst receptor cells of the opisthobranch gastropod Aplysia limacina , 1972 .
[119] G A Horridge,et al. Statocysts of medusae and evolution of stereocilia. , 1969, Tissue & cell.
[120] B. Bush,et al. Crab Muscle Receptor which responds without Impulses , 1968, Nature.
[121] G. Horridge. RELATIONS BETWEEN NERVES AND CILIA IN CTENOPHORES. , 1965, American zoologist.
[122] J Adler,et al. Chemotaxis in Escherichia coli. , 1965, Cold Spring Harbor symposia on quantitative biology.
[123] J. Gibson. Visually controlled locomotion and visual orientation in animals. , 1998, British journal of psychology.
[124] R. Sperry. Neural basis of the spontaneous optokinetic response produced by visual inversion. , 1950, Journal of comparative and physiological psychology.
[125] G. E. Smith. The Elementary Nervous System , 1919, Nature.
[126] Origin of the Nervous System , 1881, The Dental register.