AbstractWe discuss energy-dependent fluorescence lowering (qE-quenching), and suggest a model to explain the experimental data currently available. The main elements of the model are: (a) the qE-quenching reflects a mechanism associated with a component of the light-harvesting antenna rather than the reaction center of photosystem (PS) II — we suggest that it occurs through formation of an efficient quencher in one of the minor chlorophyll protein (CP) complexes; (b) the minor CPs have glutamate residues instead of glutamines at positions shown in light-harvesting complex II (LHCII) to be ligands to chlorophylls near the lumenal interface. We suggest that the quenching reflects a change in ligation of chlorophyll on protonation of these glu...
AbstractNon-photochemical quenching (NPQ) of chlorophyll fluorescence is thought to be an indicator ...
The thermal dissipation of absorbed light energy by the light-harvesting apparatus of higher plants ...
AbstractThe ability to dissipate large fractions of their absorbed light energy as heat is a vital p...
AbstractWe discuss energy-dependent fluorescence lowering (qE-quenching), and suggest a model to exp...
AbstractWe have reviewed the current state of multidisciplinary knowledge of the photoprotective mec...
Photosynthesis is common in nature, converting sunlight energy into proton motive force and reducing...
The light-harvesting antenna of photosystem II (PSII) has the ability to switch rapidly between a st...
International audienceThe photosynthetic apparatus of higher plants can dissipate excess excitation ...
Photosynthesis in plants is adapted to the continuous change in environmental conditions by the oper...
AbstractThe light-harvesting antenna of photosystem II (PSII) has the ability to switch rapidly betw...
Photosystem II (PSII) is a protein complex involved in the photosynthetic process, harvesting light ...
Energy-dependent quenching (qE) in photosystem II (PSII) is a pH-dependent response that enables pla...
The ability to dissipate large fractions of their absorbed light energy as heat is a vital photoprot...
Highly concentrated solutions of chlorophyll display rapid fluorescence quenching. The same devastat...
To protect themselves from fluctuating light environments, plants have evolved non-photochemical que...
AbstractNon-photochemical quenching (NPQ) of chlorophyll fluorescence is thought to be an indicator ...
The thermal dissipation of absorbed light energy by the light-harvesting apparatus of higher plants ...
AbstractThe ability to dissipate large fractions of their absorbed light energy as heat is a vital p...
AbstractWe discuss energy-dependent fluorescence lowering (qE-quenching), and suggest a model to exp...
AbstractWe have reviewed the current state of multidisciplinary knowledge of the photoprotective mec...
Photosynthesis is common in nature, converting sunlight energy into proton motive force and reducing...
The light-harvesting antenna of photosystem II (PSII) has the ability to switch rapidly between a st...
International audienceThe photosynthetic apparatus of higher plants can dissipate excess excitation ...
Photosynthesis in plants is adapted to the continuous change in environmental conditions by the oper...
AbstractThe light-harvesting antenna of photosystem II (PSII) has the ability to switch rapidly betw...
Photosystem II (PSII) is a protein complex involved in the photosynthetic process, harvesting light ...
Energy-dependent quenching (qE) in photosystem II (PSII) is a pH-dependent response that enables pla...
The ability to dissipate large fractions of their absorbed light energy as heat is a vital photoprot...
Highly concentrated solutions of chlorophyll display rapid fluorescence quenching. The same devastat...
To protect themselves from fluctuating light environments, plants have evolved non-photochemical que...
AbstractNon-photochemical quenching (NPQ) of chlorophyll fluorescence is thought to be an indicator ...
The thermal dissipation of absorbed light energy by the light-harvesting apparatus of higher plants ...
AbstractThe ability to dissipate large fractions of their absorbed light energy as heat is a vital p...