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7篇 您的检索式:作者名="Saros P"
    题名 作者 年代 出处 被引量
1Application of an eviden- tial belief function model in landslide susceptibility map- ping显示文摘Omar F A Biswajeet P Saro L 2012Computers & Geosciences2012,,44:1
2Ovarian triggering in clomiphene citrate stimulated cycle; human chorionic gonadotropin versus a gonadotropin releasing hormone agonist显示文摘Schmidt-saros C Kaplan DR Saros P 1995J Assist Reprod Genet1995,12,2:1
3Identification of central nervous system neurons innervating the respiratory muscles of the mouse:atransneuronal tracing study显示文摘Gaytán SP Pásaro R Coulon P 2002Brain Res Bull2002,57,34:1
4Genotoxic effects of styrene-7,8-oxide in human white blood cells:comet assay in relation to the in-duction of sister-chromatid exchanges and micronuclei显示文摘LAFFON B PSARO E MNDEZ J 2001MutatRes2001,491,12:1
5Okadaic acid induces morphological changes, apoptosis and cell cycle alterations in different human cell types显示文摘Valdiglesias V Laffon B P 6 saro E 2011J Environ Monit2011,13,:1
6A GIS-based back-propagation neural network model and its cross-application and validation for landslide susceptibility analysis显示文摘BISWAJEET P SARO L MANFRED F 2010Environmental Modelling & Software2010,25,6:1
7Time windows for postnatal changes in morphology and membrane excitability of genioglossal and oculomotor motoneurons显示文摘Time windows for postnatal changes in morphology and membrane excitability of genioglossal(GG) and oculomotor(OCM) motoneurons(MNs) are yet to be fully described. Analysis of data on brain slices in vitro of the 2 populations of MNs point to a well-defined developmental program that progresses with common age-related changes characterized by:(1) increase of dendritic surface along with length and reshaping of dendritic tree complexity;(2) disappearance of gap junctions early in development;(3) decrease of membrane passive properties, such as input resistance and time constant, together with an increase in the number of cells displaying sag, and modifications in rheobase;(4) action potential shortening and afterhyperpolarization; and(5) an increase in gain and maximum firing frequency. These modifications take place at different time windows for each motoneuronal population. In GG MNs, active membrane properties change mainly during the first postnatal week, passive membrane properties in the second week, and dendritic increasing length and size in the third week of development. In OCM MNs, changes in passive membrane properties and growth of dendritic size take place during the first postnatal week, while active membrane properties and rheobase change during the second and third weeks of development. The sequential order of changes is inverted between active and passive membrane properties, and growth in size does not temporally coincide for both motoneuron populations. These findings are discussed on the basis of environmental cues related to maturation of the respiratory and OCM systems.Livia Carrascal JoséLuis Nieto-González Ricardo Pardillo-Díaz Rosario Pásaro Germán Barrionuevo Blas Torres William E Cameron Pedro Nú?ez-Abades 2015World Journal of Neurology2015,5,4:0
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