ライフサイエンスコーパス: green sulfur bacteria

1 rption in green plants, purple bacteria, and green sulfur bacteria.

2 placed with genes similar to bciB from other green sulfur bacteria.

3 ps of autotrophic prokaryotes, including the green sulfur bacteria.

4 both structural and photoprotection roles in green sulfur bacteria.

5 e not essential for photosynthetic growth of green sulfur bacteria.

6 reductive tricarboxylic acid (RTCA) cycle in green sulfur bacteria.

7 of most primitive creatures - photosynthetic green sulfur bacteria.

8 ics a complete light-harvesting apparatus of green sulfur bacteria.

9 avobacteria-Bacteroides (CFB) phylum and the green-sulfur bacteria.

10 p in the carotenoid biosynthetic pathways of green sulfur bacteria and cyanobacteria.

11 es are found in the genomes of all sequenced green sulfur bacteria and filamentous anoxygenic phototr

12 The phylogeny of carotenogenic enzymes in green sulfur bacteria and green filamentous bacteria is

13 ll oxygenic photosynthetic lineages and that green sulfur bacteria and green nonsulfur bacteria are e

14 ding the RC1 core proteins of heliobacteria, green sulfur bacteria, and photosystem I (PSI) of cyanob

15 How the chlorosomes in green sulfur bacteria are acclimated to the stressful li

16 Green sulfur bacteria are considered to be among the mos

17 ings (e.g., the chlamydiae, mycoplasmas, and green sulfur bacteria) are found in different positions

18 Matthews-Olson complex of the photosynthetic green sulfur bacteria Chlorobium tepidum is a prototype

19 a-Matthews-Olson complex from two species of green sulfur bacteria (Chlorobium tepidum and Prosthecoc

20 na-Matthews-Olson (FMO) antenna protein from green sulfur bacteria, completely lacks carotenoids and

21 -harvesting antennae, such as those found in green sulfur bacteria, consist of supramolecular buildin

22 Anaerobic green sulfur bacteria contain photosynthetic reaction ce

23 y have properties of both the photosynthetic green sulfur bacteria (containing the type I reaction ce

24 The photosynthetic reaction center (RC) of green sulfur bacteria contains two [4Fe-4S] clusters nam

25 dings is that the photosynthetic ancestor of green sulfur bacteria could have evolved without chloros

26 light-harvesting pigments in photosynthetic green sulfur bacteria, differ only by the presence of a

27 ews-Olson (FMO) pigment-protein complex from green sulfur bacteria exhibits redox-dependent quenching

28 (BChl) c and chlorosomes like members of the green sulfur bacteria (GSB) and the green filamentous an

29 Green sulfur bacteria (GSB) synthesize aromatic caroteno

30 In green sulfur bacteria (GSB), the trimeric Fenna-Matthews

31 ed by filamentous Cyanobacteria, below which Green Sulfur Bacteria (GSB, Chlorobiaceae) were highly a

32 The anoxygenic green sulfur bacteria (GSBs) assimilate CO(2) autotrophi

33 Green-sulfur bacteria have evolved a unique light-harves

34 eaction center was vertically transmitted to green sulfur bacteria, heliobacteria, and an ancestor of

35 In green sulfur bacteria light is absorbed primarily by the

36 nfers a significant competitive advantage to green sulfur bacteria living at limiting red and near-in

37 e genes are found are not closely related to green sulfur bacteria or to one another.

38 thews-Olson (FMO) pigment-protein complex in green sulfur bacteria, raising the question of whether r

39 examples of the method applied to data from green sulfur bacteria recovered from an Antarctic lake,

40 ence for an analogous iron-sulfur cluster in green sulfur bacteria remains equivocal.

41 In green-sulfur bacteria sunlight is absorbed by antenna st

42 The green sulfur bacteria, the Chlorobi, are phototrophic ba

43 ion of the Fenna-Matthews-Olson complex from green sulfur bacteria, the energy transfer connecting tw

44 being the purple bacteria and relatives, the green sulfur bacteria, the green nonsulfur bacteria, and

45 It has been assumed that like green sulfur bacteria, the major carbon flow in heliobac

46 In green sulfur bacteria, the membrane-attached Fenna-Matth