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Duplicity Theory of Vision: From Newton to the Present [Hardback]

(Universitetet i Oslo), (Universitetet i Oslo)
  • Formāts: Hardback, 238 pages, height x width x depth: 235x156x16 mm, weight: 500 g
  • Izdošanas datums: 13-Aug-2009
  • Izdevniecība: Cambridge University Press
  • ISBN-10: 052111117X
  • ISBN-13: 9780521111171
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  • Formāts: Hardback, 238 pages, height x width x depth: 235x156x16 mm, weight: 500 g
  • Izdošanas datums: 13-Aug-2009
  • Izdevniecība: Cambridge University Press
  • ISBN-10: 052111117X
  • ISBN-13: 9780521111171
Citas grāmatas par šo tēmu:
Chronicles the development of three classic theories within vision research, from the 17th century to today, focusing on duplicity theory.

The duplicity theory of vision concerns the comparisons (both differences and similarities) and interaction between the cone and rod systems in the visual pathways, with the assumption that the cone system is active during daylight vision and the rod system functions in low light (night time). Research on this aspect of vision dates back to the 17th century and the work of Newton, and is still ongoing today. This book describes the origin and development of this fundamental theory within vision research - whilst also examining the Young-Helmholtz trichromatic colour theory, and the opponent colour theory of Hering - and presents evidence and ideas in light of modern conceptions of the theory. Written for academic researchers and graduate students, the book brings back knowledge of the tradition of duplicity theory, inspiring questions related to anatomy, comparative biology, molecular biology, photochemistry, physiology, genetics, phylogenetics and psychophysics.

Recenzijas

"Duplicity Theory of Vision presents a comprehensive and detailed account of an important area of research in vision. The text is well written and organized in a manner that is accessible for the degree of technical material that is presented. I recommend it to those who are primarily interested in a historical account of vision research." Paula Goolkasian, PsycCRITIQUES

Papildus informācija

This book chronicles the development of three classic theories within vision research, from the 17th century to today, focusing on duplicity theory.
Acknowledgements xiii
Introduction
1(5)
Roots of the duplicity theory of vision: Ancient Greeks
1(2)
Further development of the duplicity theory
3(3)
Part I The development of the basic ideas of the duplicity theory from Newton to G. E. Muller
6(55)
The Newton tradition
7(15)
Newton's universal colour theory
7(1)
An alternative to Newton's theories of light and colour
8(3)
Phototransduction in the retina and signal transmission to the brain: Newton's speculations
11(1)
Newton's gravitation principle applied to colour mixture data
12(2)
Conclusions
14(1)
Young's colour theory: three instead of seven primaries
14(2)
Maxwell: triplicity of colour vision proved
16(4)
Helmholtz: the Young-Helmholtz colour theory
20(2)
The Schultze tradition
22(19)
The duplicity theory of Max Schultze
22(1)
Evidence in favour of the theory
22(1)
One or several types of cone?
23(2)
Phototransduction is photochemical in nature: Boll and Kuhne
25(1)
Boll: discovery of rhodopsin as a visual photopigment
26(1)
Kuhne: several photochemical substances in the retina
27(2)
Phototransduction of rhodopsin
29(1)
Parinaud and Konig: early reformulations of the duplicity theory
29(1)
The duplicity theory of Parinaud
30(2)
Konig: rhodopsin is the mediator of night vision -- a conclusive proof
32(1)
The duplicity theory of Konig
32(2)
The duplicity theory of von Kries
34(4)
An attempt to unify the theories of Schultze and Young-Helmholtz
38(3)
The Goethe tradition: the phenomenological approach
41(11)
Phenomenological analysis may reveal underlying material processes
41(1)
The colour theory of J. W. von Goethe
42(2)
Goethe's contribution
44(1)
The colour theory of Ewald Hering
45(4)
Experiments in support of Hering's colour theory
49(1)
Contributions of Hering
50(2)
The colour theories of Armin Tschermak and George Elias Muller
52(9)
The colour theory of Tschermak
52(1)
The duplicity theory of G. E. Muller
53(6)
Evaluation of G. E. Muller's colour theory
59(2)
Part II The development of the duplicity theory from 1930--1966
61(47)
The duplicity theory of Polyak
62(10)
Trichromacy of colour vision explained by three types of bipolar cell
63(2)
Midget ganglion cells as synthesizers
65(1)
The specific fibre-energy doctrine questioned
65(1)
Applications of Polyak's colour theory
66(1)
Common pathways of rods and cones
67(2)
Explanations of acuity and sensitivity differences between rods and cones
69(1)
The functional potentials of the synaptic arrangement
70(2)
Investigations of H.K. Hartline and S. W. Kuffler
72(6)
The electrical responses to light stimuli in single optic nerve fibres
72(1)
The electrical responses in single optic nerve fibres of Limulus
72(2)
The electrical responses in single optic nerve fibres of the frog
74(1)
Receptive field organization of rods and cones: Kuffler's investigation
75(3)
The duplicity theory of R. Granit
78(8)
Supporting evidence for the duplicity theory from the ERG technique
78(3)
The dominator-modulator theory
81(2)
Schultze's duplicity theory challenged
83(3)
Contributions of E. N. Willmer, P. Saugstad & A. Saugstad, and I. Lie
86(19)
The duplicity theory of Willmer
87(7)
Saugstad and Saugstad: evaluation of Schultze's duplicity theory
94(6)
Ivar Lie: interactions between rod and cone functions at mesopic intensity
100(5)
Status of the duplicity theory in the mid 1960s and its further development
105(3)
Elaboration and revision of the two most basic assumptions of Schultze's duplicity theory
105(3)
Part III Chromatic rod vision: a historical account
108(23)
Night vision may appear bluish
109(4)
Mechanisms of chromatic rod vision in scotopic illumination
113(7)
All principle hues may be observed in scotopic vision
113(1)
Scotopic contrast colours are triggered by rod signals
114(1)
Scotopic contrast colours depend on selective chromatic adaptation of cones
115(1)
Scotopic hues explained
116(2)
Modifications of Hering's opponent colour theory
118(2)
Rod-cone interactions in mesopic vision
120(4)
Rod-cone interactions under mesopic conditions in a chromatically neutral state of adaptation
120(2)
Rod-cone interactions under mesopic conditions in a chromatic state of adaptation
122(2)
Further exploration of chromatic rod vision
124(7)
Contribution of J. J. McCann and J. L. Benton
124(2)
Contribution of P. W. Trezona
126(1)
Contribution of C. F. Stromeyer III
127(1)
Contribution of S. Buck and co-workers
128(1)
Contribution of J. L. Nerger and co-workers
129(2)
Part IV Theories of sensitivity regulation of the rod and cone systems: a historical account
131(64)
Introduction
132(1)
Early photochemical explanations
133(2)
Contribution of S. Hecht
135(5)
Hecht's photochemical theory
135(1)
Supporting evidence obtained from invertebrates
136(1)
Supporting evidence obtained from psychophysical experiments
137(3)
Contribution of G. Wald: photochemical sensitivity regulation mechanisms of rods and cones
140(7)
Molecular basis of bleaching and regeneration of photopigments in rods and cones
140(4)
Serious challenges to the photochemical theory
144(1)
The neural factor refuted
144(3)
Relationship between amount of rhodopsin and sensitivity during dark adaptation
147(10)
Results of Tansley
14(133)
Results of Granit
147(1)
Granit's explanation
148(1)
Wald's explanation: compartment theory
149(3)
A logarithmic relationship between sensitivity and amount of bleached photopigment
152(1)
Contribution of J. E. Dowling
153(1)
Contribution of W. A. H. Rushton: relationship between sensitivity and amount of bleached rhodopsin in humans
154(3)
Post-receptor sensitivity regulation mechanisms
157(3)
Psychophysical evidence
157(1)
Anatomical and electrophysiological evidence
158(2)
Rushton's AGC model
160(9)
Each receptor type has a separate and independent adaptation pool
160(2)
Are light and dark adaptation really equivalent?
162(1)
A decisive experiment
163(1)
The adaptation mechanisms explored by the after-flash technique
164(2)
Limitations of Rushton's photochemical theory
166(3)
Contribution of H.B. Barlow
169(5)
Dark and light adaptation based on similar mechanisms
169(1)
Both noise and neural mechanisms involved
169(1)
Evidence in support of the noise theory
170(1)
Opposing evidence
171(1)
Sensitivity difference between rods and cones explained
172(2)
Rushton and Barlow compared
174(1)
The Dowling-Rushton equation refuted
175(11)
Contribution of T.D. Lamb
175(2)
The search for a new formula
177(2)
Differences between rod and cone dark adaptation
179(1)
Light and dark adaptation are not equivalent
180(1)
Allosteric regulation of dark adaptation
181(1)
A search for the allosteric adaptation mechanisms
182(4)
Several mechanisms involved in sensitivity regulation
186(4)
Sensitivity regulation due to rod-cone interaction
190(2)
Modern conceptions of sensitivity regulation
192(3)
Part V Factors that triggered the paradigm shifts in the development of the duplicity theory
195(12)
Summary of K. R. Popper's and T. S. Kuhn's models of scientific development
199(4)
The development of the duplicity theory as a test of Popper's and Kuhn's models
203(4)
References 207(14)
Index 221