Protein complexes that take part in the process of PHOTOSYNTHESIS. They are located within the THYLAKOID MEMBRANES of plant CHLOROPLASTS and a variety of structures in more primitive organisms. There are two major complexes involved in the photosynthetic process called PHOTOSYSTEM I and PHOTOSYSTEM II
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Photosynthetic oxygen evolution -- See Also Oxygen
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Photosynthetic pigments -- See Also the narrower term Chlorophyll
Photosynthetic Reaction Center Complex Proteins : Biotechnological applications of photosynthetic proteins : biochips, biosensors, and biodevices / [edited by] Maria Teresa Giardi, Elena V. Piletska
Protein complexes that take part in the process of PHOTOSYNTHESIS. They are located within the THYLAKOID MEMBRANES of plant CHLOROPLASTS and a variety of structures in more primitive organisms. There are two major complexes involved in the photosynthetic process called PHOTOSYSTEM I and PHOTOSYSTEM II
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Photosynthetic reaction centers. : Biotechnological applications of photosynthetic proteins : biochips, biosensors, and biodevices / [edited by] Maria Teresa Giardi, Elena V. Piletska
2006
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Photosystem : Photosynthetic excitons / Herbert van Amerongen, Leonas Valkunas, Rienk van Grondelle
A large multisubunit protein complex found in the THYLAKOID MEMBRANE. It uses light energy derived from LIGHT-HARVESTING PROTEIN COMPLEXES to catalyze the splitting of WATER into DIOXYGEN and of reducing equivalents of HYDROGEN
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Photosystem II Protein Complex : Biotechnological applications of photosynthetic proteins : biochips, biosensors, and biodevices / [edited by] Maria Teresa Giardi, Elena V. Piletska
A large multisubunit protein complex found in the THYLAKOID MEMBRANE. It uses light energy derived from LIGHT-HARVESTING PROTEIN COMPLEXES to catalyze the splitting of WATER into DIOXYGEN and of reducing equivalents of HYDROGEN
A large multisubunit protein complex found in the THYLAKOID MEMBRANE. It uses light energy derived from LIGHT-HARVESTING PROTEIN COMPLEXES to catalyze the splitting of WATER into DIOXYGEN and of reducing equivalents of HYDROGEN
A large multisubunit protein complex found in the THYLAKOID MEMBRANE. It uses light energy derived from LIGHT-HARVESTING PROTEIN COMPLEXES to catalyze the splitting of WATER into DIOXYGEN and of reducing equivalents of HYDROGEN
Here are entered works on the photography of objects at a distance. Works on the transmission of pictures by telegraph or telephone wires, or by wireless telegraphy are entered under Phototelegraphy
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Photothérapie. : Photobiology / Elli Kohen, René Santus, Joseph G. Hirschberg
Brain -- Phototherapy : Photobiomodulation in the Brain : Low-Level Laser (Light) Therapy in Neurology and Neuroscience / edited by Michael R. Hamblin and Ying-Ying Huang
Cancer -- Phototherapy -- Simulation methods : Applications of minimally invasive nanomedicine-based therapies in 3D in vitro cancer platforms / Layla Mohammad-Hadi and Marym Mohammad-Hadi
Treatment using irradiation with light of low power intensity so that the effects are a response to the light and not due to heat. A variety of light sources, especially low-power lasers are used
Phototherapy -- standards : Phototherapy treatment protocols : for psoriasis and other phototherapy responsive dermatoses / the methods of Michael D. Zanolli and Steven R. Feldman
2005
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Photothermal spectroscopy. : Photoacoustic and photothermal spectroscopy principles and applications / edited by Surya N. Thakur, Virendra N. Rai, Jagdish P. Singh
Processes by which phototrophic organisms use sunlight as their primary energy source. Contrasts with chemotrophic processes which do not depend on light and function in deriving energy from exogenous chemical sources. Photoautotrophy (or photolithotrophy) is the ability to use sunlight as energy to fix inorganic nutrients to be used for other organic requirements. Photoautotrophs include all GREEN PLANTS; GREEN ALGAE; CYANOBACTERIA; and green and PURPLE SULFUR BACTERIA. Photoheterotrophs or photoorganotrophs require a supply of organic nutrients for their organic requirements but use sunlight as their primary energy source; examples include certain PURPLE NONSULFUR BACTERIA. Depending on environmental conditions some organisms can switch between different nutritional modes (AUTOTROPHY; HETEROTROPHY; chemotrophy; or phototrophy) to utilize different sources to meet their nutrients and energy requirements
Processes by which phototrophic organisms use sunlight as their primary energy source. Contrasts with chemotrophic processes which do not depend on light and function in deriving energy from exogenous chemical sources. Photoautotrophy (or photolithotrophy) is the ability to use sunlight as energy to fix inorganic nutrients to be used for other organic requirements. Photoautotrophs include all GREEN PLANTS; GREEN ALGAE; CYANOBACTERIA; and green and PURPLE SULFUR BACTERIA. Photoheterotrophs or photoorganotrophs require a supply of organic nutrients for their organic requirements but use sunlight as their primary energy source; examples include certain PURPLE NONSULFUR BACTERIA. Depending on environmental conditions some organisms can switch between different nutritional modes (AUTOTROPHY; HETEROTROPHY; chemotrophy; or phototrophy) to utilize different sources to meet their nutrients and energy requirements
The processes and properties of living organisms by which they take in and balance the use of nutritive materials for energy, heat production, or building material for the growth, maintenance, or repair of tissues and the nutritive properties of FOOD
Processes by which phototrophic organisms use sunlight as their primary energy source. Contrasts with chemotrophic processes which do not depend on light and function in deriving energy from exogenous chemical sources. Photoautotrophy (or photolithotrophy) is the ability to use sunlight as energy to fix inorganic nutrients to be used for other organic requirements. Photoautotrophs include all GREEN PLANTS; GREEN ALGAE; CYANOBACTERIA; and green and PURPLE SULFUR BACTERIA. Photoheterotrophs or photoorganotrophs require a supply of organic nutrients for their organic requirements but use sunlight as their primary energy source; examples include certain PURPLE NONSULFUR BACTERIA. Depending on environmental conditions some organisms can switch between different nutritional modes (AUTOTROPHY; HETEROTROPHY; chemotrophy; or phototrophy) to utilize different sources to meet their nutrients and energy requirements
Phototropism in animals. : Asphalt surfaces as ecological traps for water-seeking polarotactic insects : how can the polarized light pollution of asphalt surfaces be reduced? / Gábor Horváth ... [and others]
