Ko Sakai: Functional roles of receptive field structures in the perception of orientation.
141-149
Michael Breakspear, John R. Terry, Karl J. Friston: Modulation of excitatory synaptic coupling facilitates synchronization and complex dynamics in a nonlinear model of neuronal dynamics.
151-158
Yanqing Chen, Douglas A. Nitz: Evidence for slow (2-10 Hz) and gamma frequency coherence between spike trains and local field potentials in the cerebellum.
159-164
Robert L. Fry: A theory of neural computation.
255-263
Bernadette Garner: A novel approach to training neurons with biological plausibility.
265-270
Greg Lemon, William G. Gibson, Max R. Bennett: A model of inositol 1, 4, 5-trisphosphate and calcium dynamics in single cells following metabotropic receptor activation.
271-276
Martin A. Giese: Learning recurrent neural models with minimal complexity from neural tuning data.
277-283
Andreas Knoblauch, Friedrich T. Sommer: Synaptic plasticity, conduction delays, and inter-areal phase relations of spike activity in a model of reciprocally connected areas.
301-306
Simona Doboli, Ali A. Minai, Phillip J. Best: A computational model of the interaction between external and internal cues for the control of hippocampal place cells.
371-379
James A. Bednar, Risto Miikkulainen: Self-organization of spatiotemporal receptive fields and laterally connected direction and orientation maps.
473-480
Igor V. Filippov: Power spectral analysis of very slow brain potential oscillations in primary visual cortex of freely moving rats during darkness and light.
505-510
David C. Tam: Real-time estimation of predictive firing rate.
637-641
Takamasa Koshizen, So Yamada, Hiroshi Tsujino: Semantic rewiring mechanism of neural cross-supramodal integration based on spatial and temporal properties of attention.
643-648
Masami Tatsuno, Masato Okada: How does the information-geometric measure depend on underlying neural mechanisms?
649-654
Marcelo Camperi, María Virginia Manías: On duration and dopamine modulation of sustained activity in prefrontal cortex using conductance-based network models.
699-705