Abstract
The daylength varies with the time of the year and can thus be used by plants—and other organisms—to react photoperiodically in developmental steps and morphological features such as cyst formation, germination of zygospores and cell division in certain algae, succulence of stems and leaves, formation of storage organs, and flower induction. The functioning and molecular bases of circadian clocks of plants are mentioned and shown how they are entrained to the day, and whether they are involved in photoperiodic timing. Seasonal aspects for various crops and the evolution of photoperiodism are briefly touched upon.
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Acknowledgement
I appreciate the help from Anders Johnsson (Trondheim, corrections), Dorothee Staiger (Bielefeld, literature, pointing out errors), Patricia Lakin-Thomas (Toronto, informations and literature), Markus Schmid (Tübingen), Heather Silyn-Roberts (Auckland, corrections), Rüdiger Hardeland (Göttingen, informations), Isabelle Carre (Coventry), Motomu Endo (Tokyo), Salomé Prat (Madrid), Gordon Simpson (Dundee), Maria Rosa Ponce Molet (Alicante), Chentao Lin (Los Angeles), Woodland Hastings (Cambridge, Mass.), George Coupland and Franziska Turck (Köln), David Saunders (Edinburgh), Robert Turgeon (Cornell), Steven Clark (Ann Arbor), Karen J. Halliday (Edinburgh), Eric Bittman (Amherst).
For lack of space, the literature has been restricted by citing mainly the recent publications, in which earlier references can be found.
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Engelmann, W. (2015). Photoperiodism: The Calendar of Plants. In: Mancuso, S., Shabala, S. (eds) Rhythms in Plants. Springer, Cham. https://doi.org/10.1007/978-3-319-20517-5_8
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