ライフサイエンスコーパス: photosynthetic bacteria

1 roton-coupled electron-transfer mechanism in photosynthetic bacteria.

2 offsets, but is in fact actively managed by photosynthetic bacteria.

3 to those found in LH1 complexes from purple photosynthetic bacteria.

4 point in the biosynthesis of carotenoids in photosynthetic bacteria.

5 ics of chlorosomes in other species of green photosynthetic bacteria.

6 biochemistry of phage propagation in marine photosynthetic bacteria.

7 ws-Olson light harvesting complex from green photosynthetic bacteria.

8 the Chloroflexi and Chlorobi phyla of green photosynthetic bacteria.

9 tography elution time than BChl a from other photosynthetic bacteria.

10 rvesting structures found in two families of photosynthetic bacteria.

11 lectron donor to the reaction center (RC) in photosynthetic bacteria.

12 e size and density of the sulfur globules in photosynthetic bacteria.

13 in a zone of anaerobic primary production by photosynthetic bacteria.

14 attractant signal for motility among purple photosynthetic bacteria.

15 photosynthetic membranes of plants and many photosynthetic bacteria.

16 e of mitochondria and the plasma membrane of photosynthetic bacteria.

17 oteins, indicating their possible origins in photosynthetic bacteria.

18 between HMT2 and sulfide dehydrogenases from photosynthetic bacteria.

19 undamental biological processes catalyzed by photosynthetic bacteria.

20 antifungal compound in an ancient lineage of photosynthetic bacteria.

21 pairs of bacteriochlorophylls found in some photosynthetic bacteria.

22 s instead related to a lycopene cyclase from photosynthetic bacteria(3).

23 In purple photosynthetic bacteria a simple version of this photoen

24 The discovery of oxygen-requiring photosynthetic bacteria about 20 years ago changed this

25 Green photosynthetic bacteria adjust the structure and functio

26 early atmosphere to form anaerobic bacteria, photosynthetic bacteria and eventually blue-green algae

27 g the core light-harvesting complex (LH1) of photosynthetic bacteria and its subunit complex.

28 rginal sequence homology, cytochrome c2 from photosynthetic bacteria and the mitochondrial cytochrome

29 Phototrophic organisms such as plants, photosynthetic bacteria, and algae use microscopic compl

30 criptional regulatory motifs found in purple photosynthetic bacteria are absent.

31 Purple photosynthetic bacteria are capable of generating cellul

32 trated that reaction centers from anoxygenic photosynthetic bacteria can be modified to bind a redox-

33 Photosynthetic bacteria can have (bacterio)chlorophyll Q

34 The photosynthetic unit (PSU) of purple photosynthetic bacteria consists of a network of bacteri

35 This system mimics the process by which photosynthetic bacteria convert light energy into ATP ch

36 During chlorophyll biosynthesis in photosynthetic bacteria, cyanobacteria, green algae and

37 Single-celled photosynthetic bacteria determine the direction of incom

38 erial genus Rhodopseudomonas is comprised of photosynthetic bacteria found widely distributed in aqua

39 olutionarily ancient mechanism that protects photosynthetic bacteria from high light stress, which su

40 Green photosynthetic bacteria harvest light and perform photos

41 Purple photosynthetic bacteria harvest light using pigment-prot

42 ich participates in energy transfer in green photosynthetic bacteria, has been crystallized using the

43 SenC, a Sco1 homolog found in the purple photosynthetic bacteria, has been implicated in affectin

44 is a homodimer of identical b subunits, but photosynthetic bacteria have open reading frames for two

45 Anoxygenic photosynthetic bacteria have provided us with crucial in

46 iPIP) differs from those isolated from other photosynthetic bacteria in its relatively high midpoint

47 ncentration suggests that the first oxygenic photosynthetic bacteria in solitary form could have evol

48 However, the distribution of aerobic photosynthetic bacteria in the world oceans, their photo

49 g in the light harvesting antennae of purple photosynthetic bacteria is an ultrafast process, which o

50 y in Rhodospirillum rubrum and in some other photosynthetic bacteria is regulated in part by the avai

51 tochrome c(2) (cyt) and reaction center from photosynthetic bacteria, is the focus of this theoretica

52 nown for over half a century that anoxygenic photosynthetic bacteria maximally synthesize their photo

53 mbers of the alpha subdivision of the purple photosynthetic bacteria, namely, Rb. sphaeroides, P. den

54 The core complex in photosynthetic bacteria plays a central role in photosyn

55 Photosynthetic bacteria regulate photosystem synthesis i

56 Many species of purple photosynthetic bacteria repress synthesis of their photo

57 Photosynthetic bacteria respond to alterations in light

58 high-pressure of the LH2 complexes from the photosynthetic bacteria Rhodobacter sphaeroides 2.4.1 an

59 tural abundance 13C in reaction centers from photosynthetic bacteria Rhodobacter sphaeroides R-26 was

60 t c(2)) to the reaction center (RC) from the photosynthetic bacteria Rhodobacter sphaeroides were stu

61 that mutant strains of the nonsulfur purple photosynthetic bacteria Rhodospirillum rubrum and Rhodob

62 They are found in certain photosynthetic bacteria, some of which live in extremely

63 s of the mitochondrial respiratory chain and photosynthetic bacteria, suggests that an additional fun

64 red heliobacteria are the only Gram-positive photosynthetic bacteria that have been cultured.

65 In photosynthetic bacteria, the products of three genes, bc

66 ly the transcriptional activation systems in photosynthetic bacteria, the Rhodobacter capsulatus RNA

67 ure that mimics the carboxysome used by some photosynthetic bacteria to fix CO(2).

68 le in the ability of gymnosperms, algae, and photosynthetic bacteria to green (form chlorophyll) in t

69 They are used by green photosynthetic bacteria to trap visible and infrared lig

70 Here the authors track energy transfer in photosynthetic bacteria using two-dimensional electronic

71 s, the light-harvesting complexes from green photosynthetic bacteria, using fluorescence correlation

72 and electron donor for chemolithotrophic and photosynthetic bacteria, via sulfide oxidation, and is a

73 o diacylglycerol, are abundant in plants and photosynthetic bacteria, where they constitute the bulk

74 Cyanobacteria are photosynthetic bacteria with a unique CO2 concentrating

75 ome (Cyt) c(2) and reaction center (RC) from photosynthetic bacteria, yielding a second-order rate co