Diff for "Phytoplankton"

• wiki.keithl.com/Phytoplankton

Phytoplankton Books

Algal Cultures and Phytoplankton Ecology

• G.E. Fogg 1919-2005 and Brenda Thake 1942-2022

• p158 Viruses (cyanophages) and myxobacteria causing lysis of blue-green algae

• p226 ref J. A. Bassham and M. Calvin 1957 The Path of Carbon in Photosynthesis @PSU QK882.B3

• p228 The seasonal variation in oceanic production as a problem in population dynamics D. H. Cushing 1959

• p229 Cushing 1959 no online source
• p229 M. R. Droop Heterotrophy of carbon 1974 Algal Physiology and Biochemistry

• p232 E. Fogg et. al. 1973 459p The Blue-Green Algae WSU Vancouver Library purchased $16.08

• p233 W.W.C. Gieskes Current 14C methods for measuring primary production: Gross underestimates in oceanic waters

• p236 O Holm-Hansen, K Nishida, V Moses, M Calvin Journal of Experimental Botany, 1959 [[ https://escholarship.org/content/qt42q33467/qt42q33467_noSplash_4e281a8d4b5fc18255d66c9cee28ec22.pdf | Effects of Mineral Salts on Short-term Incorporation of Carbon Dioxide inChlorella] ]

• p245 Trevor Platt D. V. Subba Rao 1970 Primary Production Measurements on a Natural Plankton Bloom

• p245 Karen Glaus Porter 1976 https://www.science.org/doi/abs/10.1126/science.192.4246.1332

• p260i Perspectives in Marine Biology 1958 PSU QH91.S8 1956 p299-322 Rohde& The Primary Production and Standing Crop of Phytoplankton

• p265i Oligotrophic refers to environments, particularly lakes and other aquatic systems, that have very low concentrations of nutrients such as nitrates, phosphates, and organic matter, resulting in limited biological productivity.

• p266i Phagotrophy

• p266i Primary Productivity

• Phytoplankton 2nd Ed 1989 - Arthur Donald Boney Emeritus Professor of Botany University of Glasgow

  • PSU QK933.B66 1989
• pelagic zone: water column of the open ocean

• p001 thallus, no organization into tissues such as vascular structure

• p001 all algae contain chlorophyll a, a poor absorber of green light

• p003 Red tides toxic dinoflagellates

• p013 coccolith plates of calcium carbonate, perhaps protective against predation

• p016 Primary production autotroph produces own food heterotroph consumes producers

• p017 Global primary production 1.4e14 to 1.8e14 kg/year dry matter, oceans only 35% of the total

  • why not 70%, proportional to ocean/land ratio? If land production remained the same, the total land plus ocean productivity could increase by a factor of 2.16 ... and that's before improving predation resistance and engineering new photosynthetic processes.

• p018 PAR Photosynthetically active radiation

• p018 Clear winter's day light intensity 20% of summer, 10% with clouds

• p019 thylakoids membrane-bound compartments inside chloroplasts and cyanobacteria

• p019 stroma

• p019 pyrenoids

• p019 phycobilin

• p019 carotenes absorb UV, violet, and blue light

• p019 xanthrophyll yellow pigments

• p019 Sun vertical, 2% light reflection, near horizon 90% reflection

• p021 humic acids

• p021 gilvin colored humic substances

• p023 depth d at which lowered white disk disappears
• p023 surface inhibition, light too intense for phytoplankton
• p024 continuous sunlight and prolonged calm injures Arctic phytoplankton and inhibits photosynthesis

• p026 epilimnion surface layer hypolimnion metalimnion

• p026

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• p041

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• p079

• p094 Measuring Primary Productivity

• p0

• p105

Phytoplankton Productivity

Carbon assimilation in marine and freshwater ecosystems

• P.J. le B. Williams, D.N. Thomas, C.S. Reynolds . . PSU QK933 .P52 2002

• p073 ref

• p086

• p109

• p111

• p156

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• p161

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• p170

  • plate 7.1 Global annual net primary production

• p182 ref

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• p183 ref

• p225

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• p293

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• p316 ref

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• p374 ref78 natur

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• p375