Bacteriochlorophyll c pigments extracted from light harvesting chlorosomes in green photosynthetic bacteria are known to self-assemble into aggregates whose electronic spectroscopy resembles that of intact chlorosomes. Femtosecond optical experiments reveal that the chlorosomes and their reconstituted aggregates exhibit closely analogous internal energy transfer kinetics and exciton state evolution. These comparisons furnish compelling new evidence that proteins do not exert a major local role in the BChl c antenna pigment organization of intact chlorosomes
AbstractRoom temperature absorption difference spectra were measured on the femtosecond through pico...
We prepare artificial aggregates that mimic the structure and function of natural chlorosomal light ...
Three phyla of bacteria include phototrophs that contain unique antenna systems, chlorosomes, as the...
Bacteriochlorophyll c pigments extracted from light harvesting chlorosomes in green photosynthetic b...
Among all photosynthetic organisms, green bacteria have evolved one of the most efficient light-harv...
Among all photosynthetic organisms, green bacteria have evolved one of the most efficient light-harv...
We theoretically investigate the possibility to use single-object spectroscopy to probe size variati...
ABSTRACT: Chlorosomes are likely the largest and most efficient natural light-harvesting photosynthe...
Chlorosomes are the main light-harvesting complexes of green photosynthetic bacteria that are adapte...
A theory of excitation energy transfer within the chlorosomal antennae of green bacteria has been de...
This project is concerned with the structure and function of the chlorosome antennas found in green ...
Green sulfur bacteria can grow photosynthetically by absorbing only a few photons per bacteriochloro...
AbstractChlorosomes of green photosynthetic bacteria constitute the most efficient light harvesting ...
Green sulfur bacteria can grow photosynthetically by absorbing only a few photons per bacteriochloro...
AbstractGreen-sulfur bacteria have evolved a unique light-harvesting apparatus, the chlorosome, by w...
AbstractRoom temperature absorption difference spectra were measured on the femtosecond through pico...
We prepare artificial aggregates that mimic the structure and function of natural chlorosomal light ...
Three phyla of bacteria include phototrophs that contain unique antenna systems, chlorosomes, as the...
Bacteriochlorophyll c pigments extracted from light harvesting chlorosomes in green photosynthetic b...
Among all photosynthetic organisms, green bacteria have evolved one of the most efficient light-harv...
Among all photosynthetic organisms, green bacteria have evolved one of the most efficient light-harv...
We theoretically investigate the possibility to use single-object spectroscopy to probe size variati...
ABSTRACT: Chlorosomes are likely the largest and most efficient natural light-harvesting photosynthe...
Chlorosomes are the main light-harvesting complexes of green photosynthetic bacteria that are adapte...
A theory of excitation energy transfer within the chlorosomal antennae of green bacteria has been de...
This project is concerned with the structure and function of the chlorosome antennas found in green ...
Green sulfur bacteria can grow photosynthetically by absorbing only a few photons per bacteriochloro...
AbstractChlorosomes of green photosynthetic bacteria constitute the most efficient light harvesting ...
Green sulfur bacteria can grow photosynthetically by absorbing only a few photons per bacteriochloro...
AbstractGreen-sulfur bacteria have evolved a unique light-harvesting apparatus, the chlorosome, by w...
AbstractRoom temperature absorption difference spectra were measured on the femtosecond through pico...
We prepare artificial aggregates that mimic the structure and function of natural chlorosomal light ...
Three phyla of bacteria include phototrophs that contain unique antenna systems, chlorosomes, as the...