ライフサイエンスコーパス: photosynthetic apparatus

1 chlorophyll and most other components of the photosynthetic apparatus.

2 is essential for the correct assembly of the photosynthetic apparatus.

3 e defective in the formation of a functional photosynthetic apparatus.

4 noid biosynthesis and incorporation into the photosynthetic apparatus.

5 , which results in aerobic expression of the photosynthetic apparatus.

6 te light source for the stimulation of algal photosynthetic apparatus.

7 egral membrane enzymes of the R. sphaeroides photosynthetic apparatus.

8 t is required during the installation of the photosynthetic apparatus.

9 anthophylls, are essential components of the photosynthetic apparatus.

10 k regulates chloroplast transcription or the photosynthetic apparatus.

11 e changes, confirming the involvement of the photosynthetic apparatus.

12 af chlorosis and improved maintenance of the photosynthetic apparatus.

13 rotein and illustrates the plasticity of the photosynthetic apparatus.

14 a global impact of copper deficiency on the photosynthetic apparatus.

15 cell wall and complexes associated with the photosynthetic apparatus.

16 intracytoplasmic membrane (ICM) housing the photosynthetic apparatus.

17 e to recycle reducing power generated in the photosynthetic apparatus.

18 o maintain functional PSI complexes in their photosynthetic apparatus.

19 tion process, the generation of a functional photosynthetic apparatus.

20 nthesis and the pigments associated with the photosynthetic apparatus.

21 ional molecular and spectroscopic map of the photosynthetic apparatus.

22 a valuable model for physical studies on the photosynthetic apparatus.

23 n essential role for Alb3 in maintaining the photosynthetic apparatus.

24 thereby ensuring the proper assembly of the photosynthetic apparatus.

25 plastid genes that encode components of the photosynthetic apparatus.

26 nes as a function of Chl availability in the photosynthetic apparatus.

27 least 10,000-fold lower than proteins of the photosynthetic apparatus.

28 We identified two main states of the photosynthetic apparatus: a Ci-limited state and a light

29 ous resurrection plants retain most of their photosynthetic apparatus, allowing them to resume photos

30 limation requires, besides remodeling of the photosynthetic apparatus, also adjustment of the machine

31 naerobic processes, such as synthesis of the photosynthetic apparatus and assimilation of CO2 and N2.

32 ss II contained genes, such as those for the photosynthetic apparatus and Calvin cycle enzymes, whose

33 SPs and the downregulation of enzymes of the photosynthetic apparatus and chlorophyll binding protein

34 Although isoprene emission protected the photosynthetic apparatus and enhanced leaf and whole-pla

35 equences reveal notable peculiarities of the photosynthetic apparatus and explain the basis of nutrie

36 antity that challenge the performance of the photosynthetic apparatus and have evolved a series of me

37 involved in biogenesis of the membrane-bound photosynthetic apparatus and one for phosphatidylcholine

38 tion leads to substantial remodelling of the photosynthetic apparatus and other changes in cellular m

39 rmediates and byproducts that can damage the photosynthetic apparatus and other chloroplast constitue

40 suggest cultivar-wide alteration of specific photosynthetic apparatus and protection of the antenna c

41 ht can lead to photo-oxidative damage to the photosynthetic apparatus and sustained decreases in the

42 nces the composition and organization of the photosynthetic apparatus and the capacity of the cells t

43 The high coverage of the photosynthetic apparatus and the identification of known

44 ants, indicating that by downsizing the stem photosynthetic apparatus and the levels of photoprotecti

45 ng triplet-state chlorophyll pigments in the photosynthetic apparatus are sufficient for a sustained

46 oplast-encoded proteins that are part of the photosynthetic apparatus but not of chloroplast-encoded

47 tion plays a key role in the assembly of the photosynthetic apparatus, but despite its biological imp

48 Analysis of the photosynthetic apparatus by negative staining, spectrosc

49 der stress conditions to limit the import of photosynthetic apparatus components, which may attenuate

50 The establishment of the photosynthetic apparatus during chloroplast development

51 and chloroplasts, exposure to HL damages the photosynthetic apparatus, especially the D1 subunit of P

52 harmful excess light energy and protect the photosynthetic apparatus from damage.

53 also play important roles in protecting the photosynthetic apparatus from damaging reactions of chlo

54 NPQ) dissipates excess energy to protect the photosynthetic apparatus from excess light.

55 ophyll cycle is implicated in protecting the photosynthetic apparatus from excessive light.

56 uenching, or q(E), protects the higher plant photosynthetic apparatus from photodamage.

57 strict anaerobes and have the simplest known photosynthetic apparatus, have focused on energy and ele

58 t AppA is dispensable for development of the photosynthetic apparatus in a ppsR null background, wher

59 tus in this organism has similarities to the photosynthetic apparatus in both the Chloroflexi and Chl

60 Iron deficiency induces a remodeling of the photosynthetic apparatus in Chlamydomonas reinhardtii.

61 d short term and long term adaptation of the photosynthetic apparatus in eukaryotes.

62 of the cell leading to reorganization of the photosynthetic apparatus in order to optimize photosynth

63 The photosynthetic apparatus in plant cells is associated wi

64 umber of processes critical for altering the photosynthetic apparatus in response to both HL and nutr

65 nes, representative of the reorganization of photosynthetic apparatus in response to environmental ch

66 ynthesis and activities of components of the photosynthetic apparatus in response to environmental cu

67 or Fnr, is required for the induction of the photosynthetic apparatus in Rhodobacter sphaeroides 2.4.

68 ential regulatory role in development of the photosynthetic apparatus in the anoxygenic phototrophic

69 ment revealed an extensive remodeling of the photosynthetic apparatus in the first 250 h of acclimati

70 is evidence of photooxidative damage of the photosynthetic apparatus in the mutants from chlorophyll

71 amide gel electrophoresis indicated that the photosynthetic apparatus in this organism has similariti

72 00 known proteins of the thylakoid localized photosynthetic apparatus, including several new paralogu

73 s to obtain structural information about the photosynthetic apparatus, including the peripheral light

74 The changing composition of the photosynthetic apparatus indicates a shift in its functi

75 ygen-producing photosystem II complex of the photosynthetic apparatus, indicating a novel metabolism,

76 binding proteins and other components of the photosynthetic apparatus is achieved, at least in part,

77 light environment and the regulation of the photosynthetic apparatus is crucial for their survival.

78 In contrast, the photosynthetic apparatus is largely maintained, although

79 t in both the genotypes, indicating that the photosynthetic apparatus is not affected by lcd1-1 mutat

80 um Rhodobacter sphaeroides, formation of the photosynthetic apparatus is oxygen dependent.

81 itch to photoheterotrophic growth, where the photosynthetic apparatus mainly provides energy but not

82 ow of excitation energy and electrons in the photosynthetic apparatus needs to be continuously modula

83 Our results show the high plasticity of the photosynthetic apparatus of C. reinhardtii This alga is

84 We report on the changes the photosynthetic apparatus of Chlamydomonas reinhardtii un

85 gment-protein antenna complexes found in the photosynthetic apparatus of cyanobacteria and rhodophyta

86 nt regulatory roles in the biogenesis of the photosynthetic apparatus of eukaryotic cells by encoding

87 The photosynthetic apparatus of green plants is well known f

88 Isoprene protects the photosynthetic apparatus of isoprene-emitting plants fro

89 termine the sensitivity of components of the photosynthetic apparatus of maize (Zea mays), a C4 plant

90 ed pigment-protein complex isolated from the photosynthetic apparatus of plants (LHCII), owing to the

91 ching (NPQ) is the process that protects the photosynthetic apparatus of plants and algae from photod

92 The photosynthetic apparatus of purple bacteria is contained

93 The photosynthetic apparatus of the red alga Cyanidioschyzon

94 enerated either by photochemistry within the photosynthetic apparatus or the photosensitizer, methyle

95 nsduction pathways for the regulation of the photosynthetic apparatus organization by irradiance.

96 SI, did not contribute to acclimation of the photosynthetic apparatus, particularly PSI, to rapidly c

97 The assembly of the photosynthetic apparatus requires the import of numerous

98 lack of this electron sink feeds back on the photosynthetic apparatus, resulting in a loss of chlorop

99 e phage-mediated modifications of the host's photosynthetic apparatus that appear to be essential for

100 mbly of the pigment-protein complexes of the photosynthetic apparatus, the formation of the lipid bil

101 ly the gene expression for components of the photosynthetic apparatus, the ROS-scavenging system, Hea

102 sting capabilities and the activities of the photosynthetic apparatus; this modulation is critical fo

103 plays a major role in the acclimation of the photosynthetic apparatus to changes in light.

104 describe a series of graded responses of the photosynthetic apparatus to Fe-deficiency, including a n

105 uently, IsaR1 affects the acclimation of the photosynthetic apparatus to iron starvation at three lev

106 eroides 2.4.1 could lead to induction of the photosynthetic apparatus under aerobic growth conditions

107 or the photoprotection of the cyanobacterial photosynthetic apparatus under excessive light condition

108 librium for maintaining the integrity of the photosynthetic apparatus under low-light glycolytic meta

109 Furthermore, we observed damage to the photosynthetic apparatus under these conditions in both

110 er changes induced in the composition of the photosynthetic apparatus upon high light acclimation con

111 oids on the accumulation and function of the photosynthetic apparatus using a mutant of the green alg

112 veloped necroses, while mature leaves, whose photosynthetic apparatus was fully assembled before RNAi

113 ectable levels, indicating that a functional photosynthetic apparatus was not prevalent in nodule tis

114 ent, and genes that encode components of the photosynthetic apparatus were upregulated later in devel

115 hat these responses are typical of a dynamic photosynthetic apparatus where photosynthetic function i

116 ferent proteins, including components of the photosynthetic apparatus, which are highly abundant.

117 rameters that describe the efficiency of the photosynthetic apparatus with increasing accumulations o

118 bstitute genes encoding core subunits of the photosynthetic apparatus with orthologs from a related a

119 s proteins involved in the biogenesis of the photosynthetic apparatus with peak expression preceding

120 cent reproduction against maintenance of the photosynthetic apparatus, with long-term negative effect

121 nomous manner to coordinate and maintain the photosynthetic apparatus within individual cells.