Abstract
The discussion is brought to the microscopic domain, beginning with the point neuron model, which ignores the spatial extent of the dendritic tree. Populations of point neurons are hypothesized to transmit information as mean rates of action potential (spike) transmission. Hebb’s postulate, by which memory is encoded in neuronal networks, is reviewed. The idea of neuronal representations is developed and applied to the directed modular processing that transpires along the ventral visual stream, as well as that which proceeds through the different layers of the neocortex. The evidence for an elaborate spatial organization of neuronal representations in the cortex is presented, with cortical neurons distributed in clusters and arranged topographically with respect to their receptive fields, driven by evolutionary pressure to maximize cortical processing efficiency.
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
Notes
- 1.
Deiters 1865.
- 2.
Named by Wilhelm Waldeyer 1891.
- 3.
Named by William His 1889.
- 4.
Named by Rudolph Albert von Koellicker 1896.
- 5.
Named by Sherrington 1897.
- 6.
Huxley 1870.
- 7.
Cajal 1937.
- 8.
Hausser 2000.
- 9.
Crick 1994.
- 10.
Swanson 2003.
- 11.
McCulloch 1943.
- 12.
Brunel 2007; Lapicque 1907.
- 13.
Yuste 2015.
- 14.
Rumelhart 1986.
- 15.
Maia 2005.
- 16.
Bain 1868, 1873.
- 17.
Lashley 1950.
- 18.
Hebb 1949.
- 19.
McConnell 1962.
- 20.
Ungar 1974.
- 21.
Byrne 1966.
- 22.
Bliss 1973.
- 23.
Morris 2013.
- 24.
Morris 2013; Collingridge 1995.
- 25.
Polsky 2009.
- 26.
Koch 2004.
- 27.
Shi 2013; Rolls 2007.
- 28.
Koch 2004; Barlow 1972.
- 29.
Crick 1995.
- 30.
Bowers 2009.
- 31.
Sperry 1943.
- 32.
Simon 1991.
- 33.
Sperry 1963.
- 34.
Tinsley 2009.
- 35.
Goldman-Rakic 1988.
- 36.
Ban 1991.
- 37.
Olson 1992.
- 38.
Siwek 1991.
- 39.
Ban 1991.
- 40.
Matelli 1986.
- 41.
HIrose 1992.
- 42.
Tamamaki 1995.
- 43.
Bock 2013.
- 44.
Tinsley 2008.
- 45.
Tusa 1978.
- 46.
Schreiner 2007.
- 47.
Whitsel 1978.
- 48.
O’Keefe 1971.
- 49.
Jacobs 2008.
- 50.
Knudsen 1978.
- 51.
Schreiner 2007.
- 52.
Tinsley 2009.
- 53.
Tinsley 2009; Wandell 2007.
- 54.
Yuste 2005.
- 55.
Schwartz 1980.
- 56.
Gross 2008.
- 57.
Huth 2012.
- 58.
Kiani 2007.
- 59.
Naseralis 2012.
- 60.
Warrington 1984.
- 61.
Giordano 2013.
- 62.
Tsao 2008.
- 63.
Conway 2009.
- 64.
Haxby 2001.
- 65.
Chklovskii 2004.
- 66.
Laughlin 2003.
- 67.
Bannister 2005.
- 68.
Lubke 2007.
- 69.
Wandell 2005.
- 70.
Buxhoeveden 2002; Mountcastle 1997.
- 71.
Lorente de No 1938.
- 72.
Mountcastle 1957.
- 73.
Crick 1998.
- 74.
Bannister 2005.
- 75.
Lubke 2007.
- 76.
Larkum 2004.
- 77.
Bannister 2005; Thomson 1998.
- 78.
Thomson 2003; Lubke 2007; Bannister 2005.
- 79.
Konstantoudaki 2014; Merchant 2012.
- 80.
Thomson 2007; Bannister 2005; Crick 1994, 1998.
Author information
Authors and Affiliations
Rights and permissions
Copyright information
© 2016 The Author(s)
About this chapter
Cite this chapter
Sevush, S. (2016). Neuronal Networks. In: The Single-Neuron Theory. Palgrave Macmillan, Cham. https://doi.org/10.1007/978-3-319-33708-1_8
Download citation
DOI: https://doi.org/10.1007/978-3-319-33708-1_8
Published:
Publisher Name: Palgrave Macmillan, Cham
Print ISBN: 978-3-319-33707-4
Online ISBN: 978-3-319-33708-1
eBook Packages: Behavioral Science and PsychologyBehavioral Science and Psychology (R0)