Overview
- Editors:
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R. E. Kendrick
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Department of Plant Physiology, Wageningen Agricultural University, Wageningen, The Netherlands
Laboratory for Photoperception and Signal Transduction, Frontier Research Program, Institute of Physical and Chemical Research (RIKEN), Wako City, Saitama, Japan
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G. H. M. Kronenberg
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Department of Plant Physiology, Wageningen Agricultural University, Wageningen, The Netherlands
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Table of contents (28 chapters)
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Coaction between pigment systems
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The light environment
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Front Matter
Pages 375-375
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A molecular and genetic approach to photomorphogenesis
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Front Matter
Pages 557-557
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- Alfred Batschauer, Philip M. Gilmartin, Ferenc Nagy, Eberhard Schäfer
Pages 559-599
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- Maarten Koornneef, Richard E. Kendrick
Pages 601-628
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Selected topics
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Front Matter
Pages 629-629
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- Wolfgang Haupt, Donat-P. Häder
Pages 707-732
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- Christopher J. Beggs, Eckard Wellmann
Pages 733-751
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- Masamitsu Wada, Michizo Sugai
Pages 783-802
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Back Matter
Pages 803-828
About this book
It is perhaps not surprising that plants have evolved a mechanism to sense the light environment about them and to modify growth for optimal use of the available `life-giving' light. Green plants, and ultimately all forms of life, depend on the energy of sunlight fixed during photosynthesis. Unlike animals that use behaviour to find food, sedentary plants use physiology to optimize their growth and development for light absorption. By appreciating the quality, quantity, direction and duration of light, plants can control such complex processes as germination, growth and flowering. To perceive the light environment several receptor pigments have evolved, including the red/far-red reversible phytochrome and the blue/UV-absorbing photoreceptors (Part 1). The quantification of light (Part 2) and importance of instrumentation for photomorphogenesis research are introduced in Part 3. Isolation and characterization of phytochrome is a classic example of how photobiological techniques can predict the nature of an unknown photoreceptor. Current knowledge of the phytochrome photoreceptor family is given in Part 4 and that of blue/UV receptors in Part 5. Part 6 deals with the coaction of photoreceptors. The light environment and its perception is addressed in Part 7. Molecular and genetic approaches and the photoregulation of gene expression compose Part 8. Part 9 contains further selected topics: photomodulation of growth phototropism, photobiology of stomatal movements, photomovement, photocontrol of flavonoid biosynthesis, photobiology of fungi and photobiology of ferns.
The 28 chapters written by leading experts from Europe, Israel, Japan and the USA, provide an advanced treatise on the exciting and rapidly developing field of plant photomorphogenesis.
Reviews
` The book is of the highest scientific standard and can be recommended to all researchers in plant photobiology as well as to graduate and postgraduate students. '
Biologia Plantarum 36(4), 1994