Solar energy captured by pigments embedded in light-harvesting complexes can be transferred to neighboring pigments, dissipated, or emitted as fluorescence. Only when it reaches a reaction center is the excitation energy stabilized in the form of a charge separation and converted into chemical energy. Well-directed and regulated energy transfer within the network of pigments is therefore of crucial importance for the success of the photosynthetic processes. Using single-molecule spectroscopy, we show that phycocyanin can dynamically switch between two spectrally distinct states originating from two different conformations. Unexpectedly, one of the two states has a red-shifted emission spectrum. This state is not involved in energy dissipati...
Photosynthetic organisms convert sunlight to electricity with near unity quantum efficiency. Absorbe...
The light-harvesting complexes of photosystem I and II (Lhcas and Lhcbs) of plants display a high st...
Photosynthetic organisms have found various smart ways to cope with unexpected changes in light cond...
Solar energy captured by pigments embedded in light-harvesting complexes can be transferred to neigh...
Solar energy captured by pigments embedded in light-harvesting complexes can be transferred to neigh...
The main light-harvesting pigment-protein complex of cyanobacteria and certain algae is the phycobil...
Photosynthetic organisms cope with changes in light quality by balancing the excitation energy flow ...
Cyanobacteria perform photosynthesis with the use of large light-harvesting antennae called phycobil...
AbstractPhycoerythrocyanin (PEC) is part of the light harvesting system of cyanobacteria. The PEC mo...
AbstractPhycobilisomes (PBS) are the major light-harvesting, protein–pigment complexes in cyanobacte...
Photosynthetic organisms harvest light energy, utilizing the absorption and energy-transfer properti...
AbstractPhycoerythrocyanin (PEC) is part of the phycobilisome of cyanobacteria. Its monomer carries ...
Phycobilisomes in cyanobacteria and red algae are large protein complexes that absorb light and tran...
Photosynthetic organisms have found various smart ways to cope with unexpected changes in light cond...
Abstract-The excited state kinetics of trimeric C-phycocyanin from Masrigocladus /arnirzosu.c. has b...
Photosynthetic organisms convert sunlight to electricity with near unity quantum efficiency. Absorbe...
The light-harvesting complexes of photosystem I and II (Lhcas and Lhcbs) of plants display a high st...
Photosynthetic organisms have found various smart ways to cope with unexpected changes in light cond...
Solar energy captured by pigments embedded in light-harvesting complexes can be transferred to neigh...
Solar energy captured by pigments embedded in light-harvesting complexes can be transferred to neigh...
The main light-harvesting pigment-protein complex of cyanobacteria and certain algae is the phycobil...
Photosynthetic organisms cope with changes in light quality by balancing the excitation energy flow ...
Cyanobacteria perform photosynthesis with the use of large light-harvesting antennae called phycobil...
AbstractPhycoerythrocyanin (PEC) is part of the light harvesting system of cyanobacteria. The PEC mo...
AbstractPhycobilisomes (PBS) are the major light-harvesting, protein–pigment complexes in cyanobacte...
Photosynthetic organisms harvest light energy, utilizing the absorption and energy-transfer properti...
AbstractPhycoerythrocyanin (PEC) is part of the phycobilisome of cyanobacteria. Its monomer carries ...
Phycobilisomes in cyanobacteria and red algae are large protein complexes that absorb light and tran...
Photosynthetic organisms have found various smart ways to cope with unexpected changes in light cond...
Abstract-The excited state kinetics of trimeric C-phycocyanin from Masrigocladus /arnirzosu.c. has b...
Photosynthetic organisms convert sunlight to electricity with near unity quantum efficiency. Absorbe...
The light-harvesting complexes of photosystem I and II (Lhcas and Lhcbs) of plants display a high st...
Photosynthetic organisms have found various smart ways to cope with unexpected changes in light cond...