nanosymposium - Society for Neuroscience

11:00 D10 334.4 NF-Y is essential for expression of the
proapoptotic bim gene in neurons. J. HAM*; R. HUGHES;
M. KRISTIANSEN; R. MANTOVANI. UCL Inst. of Child Hlth.,
Univ. degli Studi di Milano.
8:00 D11 334.5 Ketamine anesthesia during the first
week of life can cause long-lasting cognitive deficits in rhesus
monkeys. M. G. PAULE*; M. LI; X. ZOU; C. HOTCHKISS; J.
P. HANIG; T. A. PATTERSON; W. SLIKKER, Jr.; C. WANG.
Natl. Ctr. Toxicological Res., Bionetics Corp., Ctr. for Drug
Evaluation and Res.
9:00 D12 334.6 Cell specific ablation of pten signaling
alters gabaergic circuitry. G. N. BARNES*; Y. LI. Vanderbilt
Univ. Sch. Med.
10:00 D13 334.7 GABA toxicity in immature Purkinje cells is
prevented by the steroid mifepristone. J. RAKOTOMAMONJY;
C. LEVENES; M. M. SCHUMACHER*; A. GHOUMARI.
INSERM UMR788, UMR8119 CNRS-INC-Université Paris
Decartes.
POSTER
335. Visual Development: Retina, LGN, V1
Theme A: Development
Mon. 8:00 AM — San Diego Convention Center, Halls B-H
8:00 D14 335.1 • The crumbs apicobasal polarity proteins
are required for photoreceptor stability and functions in the
zebrafish retina. X. WEI*. Univ. Pittsburgh.
9:00 D15 335.2 Epigenetic changes at gene promoters
during mouse rod photoreceptor development. C. J.
BARNSTABLE*; E. POPOVA; S. S. M. ZHANG. Penn State
Coll Med.
10:00 D16 335.3 Bax-mediated apoptosis generates
functional mosaic of ipRGCs. D. MCNEILL*; S. CHEN; K. S.
CHEW; R. KURUVILLA; S. HATTAR. Johns Hopkins Univ.
11:00 D17 335.4 Changing dynamics of spontaneous
waves during retinal development: A novel panretinal
perspective achieved with the Active Pixel Sensor (APS)
4,096 electrodes array. E. SERNAGOR*; A. MACCIONE;
M. HENNIG; M. GANDOLFO; S. EGLEN; L. BERDONDINI.
Newcastle Univ., Italian Inst. of Technol., Univ. of Edinburgh,
Univ. of Genova, Cambridge Univ.
8:00 D18 335.5 Mechanisms underlying retinal waves in
mice lacking β2-containing nAChRs. L. A. KIRKBY*; M. B.
FELLER. UC Berkeley.
9:00 D19 335.6 The role of starburst amacrine cells
in initiating retinal waves. K. J. FORD*; A. L. FÉLIX; M.
B. FELLER. Univ. California Berkeley, Ecole des Ponts
ParisTech.
10:00 D20 335.7 Characterization of genetically
labeled subsets of direction selective ganglion cells in two
transgenic mouse lines. M. RIVLIN-ETZION*; W. WEI; A. D.
HUBERMAN; K. ZHOU; B. A. BARRES; M. B. FELLER. Univ.
of California, Berkeley, Stanford Univ. Sch. of Med.
11:00 D21 335.8 Functional analysis of bHLH factor Hes1
on the mouse retinal development. K. SAKAGAMI*; R.
KAGEYAMA; X. MU; W. H. KLEIN; X. YANG. UCLA, Jules
Stein Eye Inst., Kyoto Univ., Univ. at Buffalo, Univ. of Texa,
M.D. Anderson Cancer Ctr.
8:00 D22 335.9 Intraocular muscimol injection reversibly
silences spontaneous retinal activity. A. M. HAMBY*; W. WEI;
M. B. FELLER. Univ. of California Berkeley.
9:00 D23 335.10 APB blockade of retinal waves does not
prevent eye-specific segregation of retinogeniculate afferents.
J. M. BALLESTEROS*; C. SUN; B. CHAPMAN. Univ. of
California, Davis.
10:00 D24 335.11 Control of neonatal retinal ganglion
cell activity using the photoswitchable potassium channel
blocker AAQ. S. W. FAILOR*; C. SUN; R. H. KRAMER; B.
CHAPMAN. Univ. of California, Davis, Univ. of California,
Berkeley.
11:00 D25 335.12 The effect of light deprivation on retinal
ganglion cell morphology depends on developmental stage.
J. L. COOMBS*; D. A. VAN DER LIST; B. CHAPMAN. Univ.
California- Davis, Ctr. for Neuroscience, UC Davis.
8:00 D26 335.13 Morphologies of YFP expressing retinal
ganglion cells in mice where cholinergic transmission has
been altered by knockout of the nicotinic acetylcholine
receptor β2 subunit or by immunotoxin ablation of starburst
amacrine cells. D. A. VAN DER LIST; J. L. COOMBS; J. M.
BALLESTEROS; C. SUN*; B. CHAPMAN. Univ. Calif, Davis,
Univ. of California, Davis.
9:00 D27 335.14 • G-protein coupling with adenosine A2A
receptor regulates retinal waves in developing rat retinas. P.
HUANG*; Y. CHEN; C. WANG. Natl. Taiwan Univ.
10:00 D28 335.15 Developmentally regulated expression
of CRMP4 in the interlaminar zones of the lateral geniculate
nucleus. C. J. FLYNN*; W. M. USREY; J. C. CROWLEY. Dept.
of Biol. Sciences, Carnegie Mellon Univ., Univ. of California,
Davis.
11:00 D29 335.16 Differential expression of VGLUT1 and
VGLUT2 across early development in the kitten LGN. C. W.
KILEY*; W. M. USREY. UC Davis.
8:00 D30 335.17 Spatial-temporal interactions of
spontaneous retinal activity during eye-specific segregation.
H. XU*, Sr.; M. FURMAN; M. PICCIOTTO; M. CRAIR. Yale
University, Sch. of Med.
9:00 D31 335.18 Timing of corticogeniculate innervation
in the dorsal lateral geniculate nucleus (dLGN) of the
mouse relies on retinogeniculate axon innervation. T. A.
SEABROOK*; R. N. ELDANAF; T. E. KRAHE; M. A. FOX; W.
GUIDO. Virginia Commonwealth Univ.
10:00 D32 335.19 Development of relay neurons in the
dorsal lateral geniculate nucleus (dLGN) of the mouse in
the absence of retinal innervation. R. N. ELDANAF*; M.
A. FOX; T. E. KRAHE; E. K. DILGER; W. GUIDO. Virginia
Commonwealth Univ.
11:00 D33 335.20 Spontaneous retinal activity shapes
network dynamics in the developing visual cortex in vivo. F.
SIEGEL*; C. LOHMANN. Netherlands Inst. For Neurosci.,
Max Planck Inst. Of Neurobio.
8:00 D34 335.21 Abnormal binocular balance contributes to
altered OD plasticity in PirB-/- mice. M. DJURISIC*; M. MANN;
M. HUBENER; C. SHATZ. Bio-X, Stanford Univ., Max Planck
Inst. of Neurobio.
9:00 D35 335.22 A conserved switch in sensory
processing prepares developing neocortex for vision. M.
T. COLONNESE*; A. KAMINSKA; R. KHAZIPOV. INMED/
INERM U901, APHP, Groupe Hospitalier Cochin-Saint Vincent
de Paul.
10:00 D36 335.23 Ipsilateral lateral line connections from the
medulla to the tectum in Xenopus. S. B. UDIN*. SUNY.
12 | Society for Neuroscience • Indicated a real or perceived conflict of interest, see page 157 for details.
� Indicates a high school or undergraduate student presenter.