Dr. Dirk Jancke
Cognitive Neurobiology - Bernstein-Group

        Publications         

  • Grabska-Barwinska A, Ng B, Jancke D (2011). Orientation selective or not? - Measuring significance of tuning to a circular parameter. J Neurosci Methods, Epub ahead of print, doi:10.1016/j.jneumeth.2011.08.026
reprod
  • Rothermel M, Ng BS, Grabska-Barwinska A, Hatt H, Jancke D (2011). Nasal chemosensory-stimulation evoked activity patterns in the rat trigeminal ganglion visualized by in vivo -sensitive dye imaging. PLoS ONE 6(10): e26158. doi:10.137/journal.pone.0026158.

  • Onat S, König P, Jancke D (2011). Natural scene evoked population dynamics across cat primary visual cortex captured with voltage-sensitive dye imaging. Cerebral Cortex 21, 2542-2554.

  • Onat S, Nortmann N, Rekauzke S, König P, Jancke D (2011). Independent encoding of grating motion across stationary feature maps in primary visual cortex visualized with voltage-sensitive dye imaging. Neuroimage 55, 1763-1770. (link to movie) Epub.
multiplexing
  • Chavane F, Sharon D, Jancke D, Marre O, Fregnac Y, Grinvald A (2011). Lateral spread of orientation selectivity is controlled by intracortical cooperativity. Front Syst Neurosc 5: 4.

  • Markounikau V, Igel C, Grinvald A, Jancke D (2010). A dynamic neural field model of mesoscopic cortical activity captured with voltage-sensitive dye imaging. PLoS Comput Biol 6, e1000919.

NF model
  • Ng B, Grabska-Barwinska A, Güntürkün O, Jancke D (2010). Dominant vertical orientation processing without clustered maps: Early visual brain dynamics imaged with voltage-sensitive dye in the pigeon visual wulst. J Neuroscience 30, 6713-6725.

  • Palagina A, Eysel UT, Jancke D (2009). Strengthening of lateral activation in adult rat visual cortex after retinal lesions captured with voltage-sensitive dye imaging. PNAS 106, 8734-8747. (link for a movie)

PNAS_cover_suggestion
  • Grabska-Barwinska A, Distler C, Hoffmann KP, Jancke D (2009). Contrast independence of cardinal preference: Stable oblique effect in orientation maps of ferret visual cortex. Eur J Neuroscience 29, 1258-1270.

EJN_covert
  • Sharon D, Jancke D, Chavane F, Na'aman, Grinvald A (2007). Cortical response field dynamics in cat visual cortex. Cerebral Cortex 17, 2866-2877. pdf


  • Jancke D, Erlhagen W, Schöner G,  Dinse HR (2004). Shorter latencies for motion trajectories than for flashes in population responses of primary visual cortex. J Physiol 556: 971-982. pdf
 
  • Erlhagen W, Jancke D (2004). The role of action plans and other cognitive factors in motion extrapolation: A modelling study. Visual Cognition 11: 315-340.
  • Igel C, von Seelen W, Erlhagen W, Jancke D. (2002) Evolving field models for inhibition effects in early vision. Neurocomputing 44-46: 467-472.
  • Dinse HR, Jancke D (2001) Time-variant processing in V1: From microscopic (single cell) to mesoscopic (population) levels. TINS 24: 203-205.
  • Igel C, Erlhagen W, Jancke D (2001) Optimization of dynamic neural fields. Neurocomputing 36: 225-233.
  • Dinse HR, Jancke D (2001). Comparative population analysis of cortical representations in parametric spaces of visual field and skin: A unifying role for nonlinear interactions as a basis for active information processing across modalities. Progress in Brain Research, 130, 155-173.
  • Jancke D (2000) Orientation formed by a spot's trajectory: A two-dimensional population approach in primary visual cortex.  J Neuroscience 20 RC86: 1-6.  J Neuroscience-online  for a pdf-Version of the manuscript.
  • Jancke D, Erlhagen W, Dinse HR, Akhavan M, Giese M, Steinhage A, Schöner G (1999) Parametric representation of retinal location: Neural population dynamics and interaction in cat visual cortex. J Neuroscience 19: 9016-9028.
  • Erlhagen W, Bastian A, Jancke D, Riehle A, Schöner G (1999) The distribution of neuronal population activation (DPA) as a tool to study interaction and integration in cortical representations. J Neuroscience Methods 94: 53-66.
  • Jancke D, Akhavan AC, Erlhagen W, Giese M, Steinhage A, Schöner G, Dinse HR (1996). Population Coding in Cat Visual Cortex Reveals Nonlinear Interactions as Predicted by a Neural Field model. In: von der Malsburg C, von Seelen W, Vorbrüggen JC, Sendhoff B (eds), Artificial Neural Networks - ICANN 96., Springer: 641-648.