Mapping of nerve cells in the suboesophageal ganglia of Helix aspersa.
暂无分享,去创建一个
G. A. Kerkut | J. Lambert | R. Walker | J D Lambert | R J Walker | G A Kerkut | R J Gayton | J E Loker | R. J. Gayton | J. Loker
[1] G. A. Kerkut,et al. An electrophysiological, pharmacological and fluorescent study on twelve identified neurones from the brain of Helix aspersa , 1975 .
[2] Michael O'Shea,et al. The Anatomy of a Locust Visual Interneurone; the Descending Contralateral Movement Detector , 1974 .
[3] J. Parmentier. Mapping studies of a gastropod brain. , 1973, Brain research.
[4] N. Strausfeld,et al. The L4 monopolar neurone: a substrate for lateral interaction in the visual system of the fly Musca domestica (L.). , 1973, Brain research.
[5] H. Gerschenfeld,et al. Transmitter role of serotonin in identified synapses in Aplysia nervous system. , 1973, Brain research.
[6] N. Klemm,et al. Detection of dopamine, noradrenaline and 5-hydroxy-tryptamine in the cerebral ganglion of the desert locust, Schistocerca gregaria Forsk (Insecta: Orthoptera). , 1973, Brain research.
[7] Kerkut Ga. Catecholamines in invertebrates. , 1973 .
[8] J. E. Vaughn,et al. CHEMICAL, ENZYMATIC AND ULTRASTRUCTURAL CHARACTERIZATION OF 5‐HYDROXYTRYPTAMINE‐CONTAINING NEURONS FROM THE GANGLIA OF APLYSIA CALIFORNICA AND TRITONIA DIOMEDIA , 1973, Journal of neurochemistry.
[9] G. A. Kerkut,et al. Electrophysiological studies on the axon pathways of specified nerve cells in the central ganglia of two insect species, Periplaneta americana and Schistocerca gregaria , 1972 .
[10] J. Kehoe,et al. The physiological role of three acetylcholine receptors in synaptic transmission in Aplysia , 1972, The Journal of physiology.
[11] J. Kehoe,et al. Ionic mechanism of a two‐component cholinergic inhibition in Aplysia neurones , 1972, The Journal of physiology.
[12] J. Kehoe. Three acetylcholine receptors in Aplysia neurones , 1972, The Journal of physiology.
[13] N. Osborne,et al. The effect of electrical stimulation on the levels of free amino acids and related compounds in the snail brain. , 1972, Brain research.
[14] H. Gainer. Electrophysiological behavior of an endogenously active neurosecretory cell. , 1972, Brain research.
[15] H. Gainer. Patterns of protein synthesis in individual, identified molluscan neurons. , 1972, Brain research.
[16] H. Gainer. Effects of experimentally induced diapause on the electrophysiology and protein synthesis patterns of identified molluscan neurons. , 1972, Brain research.
[17] G. A. Kerkut,et al. Electrically excitable nerve cell bodies in the central ganglia of two insect species Periplaneta americana and Schistocerca gregaria. Investigation of cell geometry and morphology by intracellular dye injection , 1971 .
[18] N. Osborne,et al. Determination of amino acids in single identifiable nerve cells of Helix pomatia. , 1971, The International journal of neuroscience.
[19] D. Gardner,et al. Bilateral Symmetry and Interneuronal Organization in the Buccal Ganglia of Aplysia , 1971, Science.
[20] S. Dewhurst,et al. METABOLISM OF PUTATIVE TRANSMITTERS IN INDIVIDUAL NEURONS OF APLYSIA CALIFORNICA , 1971, Journal of neurochemistry.
[21] G. A. Kerkut,et al. Evidence for a dopamine inhibitory post-synaptic potential in the brain of Helix aspersa. , 1971, Comparative and general pharmacology.
[22] R. Mccaman,et al. CHOLINE ACETYLTRANSFERASE IN INDIVIDUAL NEURONS OF APLYSIA CALIFORNICA 1 , 1970, Journal of neurochemistry.
[23] A. E. Stuart. Physiological and morphological properties of motoneurones in the central nervous system of the leech , 1970, The Journal of physiology.
[24] D. Purves,et al. Monosynaptic chemical and electrical connexions between sensory and motor cells in the central nervous system of the leech , 1970, The Journal of physiology.
[25] G. Cottrell. Direct Postsynaptic Responses to Stimulation of Serotonin-containing Neurones , 1970, Nature.
[26] G. A. Kerkut,et al. The occurrence of monoamines in Planorbis corneus: a fluorescence microscopic and microspectrometric study. , 1970, Comparative and general pharmacology.
[27] J. Lambert,et al. Action potential shape and frequency as criteria for neuron identification in the snail, Helix aspersa. , 1970, Comparative and general pharmacology.
[28] G. A. Kerkut,et al. The location of axonal pathways of identifiable neurones of Helix aspersa using the dye Procion yellow M-4R. , 1970, Comparative biochemistry and physiology.
[29] N. Osborne,et al. Subcellular Localization of Serotonin in an Identified Serotonin-containing Neurone , 1970, Nature.
[30] G. A. Kerkut,et al. Fluorescent microscopy of the 5HT- and catecholamine-containing cells in the central nervous system of the leech Hirudo medicinalis. , 1969, Comparative biochemistry and physiology.
[31] A. Gorman,et al. The Input-Output Organization Of a Pair of Giant Neurones in the Mollusc, Anisodoris Nobilis (MACFARLAND) , 1969 .
[32] G. Hoyle,et al. Centrally Generated Nerve Impulse Sequences determining Swimming Behaviour in Tritonia , 1969, Nature.
[33] G. A. Kerkut,et al. Long-lasting synaptic inhibition and its transmitter in the snail Helix aspersa. , 1969, Comparative biochemistry and physiology.
[34] A. Selverston,et al. Structure and function of identified nerve cells in the crayfish. , 1969, Endeavour.
[35] D. Baylor,et al. Chemical and electrical synaptic connexions between cutaneous mechanoreceptor neurones in the central nervous system of the leech , 1969, The Journal of physiology.
[36] S. Rude. Catecholamines in the ventral nerve cord of Lumbricus terrestris , 1969 .
[37] E. Kravitz,et al. Neuronal Geometry: Determination with a Technique of Intracellular Dye Injecion , 1968, Science.
[38] D. Baylor,et al. Specific modalities and receptive fields of sensory neurons in CNS of the leech. , 1968, Journal of neurophysiology.
[39] N. Frontali. Histochemical localization of catecholamines in the brain of normal and drug-treated cockroaches , 1968 .
[40] E. Kandel,et al. MORPHOLOGICAL AND FUNCTIONAL PROPERTIES OF IDENTIFIED NEURONS IN THE ABDOMINAL GANGLION OF APLYSIA CALIFORNICA , 1967 .
[41] M. Cohen,et al. The Functional Organization of Motor Neurons in an Insect Ganglion , 1967 .
[42] G. A. Kerkut,et al. Uptake of DOPA and 5-hydroxytryptophan by monoamine-forming neurones in the brain of Helix aspersa. , 1967, Comparative biochemistry and physiology.
[43] J. Kehoe. Pharmacological Characteristics and Ionic Bases of a Two Component Postsynaptic Inhibition , 1967, Nature.
[44] A. Willows. Behavioral Acts Elicited by Stimulation of Single, Identifiable Brain Cells , 1967, Science.
[45] D. Potter,et al. Physiological and chemical architecture of a lobster ganglion with particular reference to gamma-aminobutyrate and glutamate. , 1967, Journal of neurophysiology.
[46] L. Tauc. Transmission in invertebrate and vertebrate ganglia. , 1967, Physiological reviews.
[47] G. A. Kerkut,et al. Cellular localization of monoamines by fluorescence microscopy in Hirudo medicinalis and Lumbricus terrestris. , 1967, Comparative biochemistry and physiology.
[48] C. Wiersma,et al. Command interneurons in the crayfish central nervous system. , 1967, The Journal of experimental biology.
[49] D. A. Dorsett. Giant Neurons and Axon Pathways in the Brain of Tritonia , 1967 .
[50] G. A. Kerkut,et al. The effect of ions on the membrane potential of snail neurones. , 1967, Comparative biochemistry and physiology.
[51] P. Ascher,et al. Two Different Excitatory Transmitters acting on a Single Molluscan Neurone , 1967, Nature.
[52] G. A. Kerkut,et al. The internal chloride concentration of H and D cells in the snail brain , 1966 .
[53] S. Rude. Monoamine‐containing neurons in the nerve cord and body wall of Lumbricus terrestris , 1966, The Journal of comparative neurology.
[54] G. A. Kerkut,et al. The effect of dopa, α-methyldopa and reserpine on the dopamine content of the brain of the snail, Helix aspersa , 1966 .
[55] E R Kandel,et al. Input organization of two symmetrical giant cells in the snail brain , 1966, The Journal of physiology.
[56] E. Kandel,et al. Heterosynaptic facilitation in neurones of the abdominal ganglion of Aplysia depilans. , 1965, The Journal of physiology.
[57] E. Kandel,et al. Mechanism of heterosynaptic facilitation in the giant cell of the abdominal ganglion of Aplysia depilans. , 1965, The Journal of physiology.
[58] L. Tauc. Presynaptic inhibition in the abdominal ganglion of Aplysia. , 1965, The Journal of physiology.
[59] G. M. Hughes,et al. AN ELECTROPHYSIOLOGICAL STUDY OF THE ANATOMICAL RELATIONS OF TWO GIANT NERVE CELLS IN APLYSIA DEPILANS. , 1963, The Journal of experimental biology.
[60] L. Tauc. Identification of Active Membrane Areas in the Giant Neuron of Aplysia , 1962, The Journal of general physiology.
[61] L. Tauc,et al. A cholinergic mechanism of inhibitory synaptic transmission in a molluscan nervous system. , 1962, Journal of neurophysiology.
[62] L. Tauc,et al. Cholinergic Transmission Mechanisms for both Excitation and Inhibition in Molluscan Central Synapses , 1961, Nature.
[63] G. A. Kerkut,et al. The effects of drugs on the neurones of the snail Helix aspersa. , 1961, Comparative biochemistry and physiology.
[64] L. Tauc,et al. Processus post-synaptiques d'excitation et d'inhibition dans le soma neuronique de l'aplysie et de l'escargot , 1958 .
[65] C. Terzuolo,et al. Diverse forms of activity in the somata of spontaneous and integrating ganglion cells , 1957, The Journal of physiology.
[66] D. Maynard. ACTIVITY IN A CRUSTACEAN GANGLION. II. PATTERN AND INTERACTION IN BURST FORMATION , 1955 .
[67] D. Maynard. ACTIVITY IN A CRUSTACEAN GANGLION. I. CARDIO-INHIBITION AND ACCELERATION IN PANULIRUS ARGUS , 1953 .
[68] G Hoyle,et al. Neural mechanism underlying behavior in the locust Schistocerca gregaria. 3. Topography of limb motorneurons in the metathoracic ganglion. , 1973, Journal of neurobiology.
[69] G. Hoyle,et al. The neuronal basis of behavior in Tritonia. I. Functional organization of the central nervous system. , 1973, Journal of neurobiology.
[70] G. Hoyle,et al. Neuronal basis of behavior in Tritonia. II. Relationship of muscular contraction to nerve impulse pattern. , 1973, Journal of neurobiology.
[71] M. Burrows,et al. Neural mechanisms underlying behavior in the locust Schistocerca gregaria. I. Physiology of identified motorneurons in the metathoracic ganglion. , 1973, Journal of neurobiology.
[72] N. Osborne. The analysis of amines and amino acids in micro-quantities of tissue , 1973 .
[73] G. Hoyle,et al. The neuronal basis of behavior in Tritonia. IV. The central origin of a fixed action pattern demonstrated in the isolated brain. , 1973, Journal of neurobiology.
[74] G. Hoyle,et al. The neuronal basis of behavior in Tritonia. 3. Neuronal mechanism of a fixed action pattern. , 1973, Journal of neurobiology.
[75] C. Lent. Retzius' cells from segmental ganglia of four species of leeches: Comparative neuronal geometry , 1973 .
[76] H. Wachtel,et al. Conversion of synaptic excitation to inhibition at a dual chemical synapse. , 1971, Journal of neurophysiology.
[77] B. Glaizner. Pharmacological Mapping of Cells in the Suboesophageal Ganglia of Helix Aspersa , 1968 .
[78] H. Gerschenfeld,et al. Evidence for an excitatory transmitter role of serotonin in molluscan central synapses. , 1968, Advances in pharmacology.
[79] Maynard Dm,et al. Integration in crustacean ganglia. , 1966 .
[80] A. R. Martin,et al. Quantal Nature of Synaptic Transmission , 1966 .