Photosystem II (PSII) uses the energy from red light to split water and reduce quinone, an
energy-demanding process based on chlorophyll a (Chl-a) photochemistry. Two types of …

Organisms that rely on oxygenic photosynthesis are subject to the effects of photo-oxidative
damage, which impairs the function of photosystem-II (PSII). This phenomenon has the …

Photosystem II (PSII) uses solar energy to oxidize water and delivers electrons for life on
Earth. The photochemical reaction center of PSII is known to possess two stationary states …

All the diverse lineages of phytoplankters use conserved Photosystem II complexes to
mediate photochemical extraction of electrons from water, with concomitant release of …

Photosynthetic organisms are continuously subjected to changes in light quantity and
quality, and must adjust their photosynthetic machinery so that it maintains optimal …

Phytoplankton in high‐light, low‐nutrient ocean environments are challenged with
maintaining high photosynthetic efficiency and simultaneously preventing photodamage that …

Photosystem II (PSII) of photosynthesis catalyzes one of the most challenging reactions in
nature, the light driven oxidation of water and release of molecular oxygen. PSII couples the …

The desert microalga Chlorella ohadii was reported to grow at extreme light intensities with
minimal photoinhibition, tolerate frequent de/re-hydrations, yet minimally employs antenna …

Photosystem I is the most efficient photosynthetic enzyme with structure and composition
highly conserved among all oxygenic phototrophs. Cyanobacterial Photosystem I is typically …

Light induced photosystem (PS) II photoinhibition inactivates and irreversibly damages the
reaction center protein (s) but the light harvesting complexes continue the collection of light …