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1 sids, chemosensory array, and photosynthetic chromatophore.
2 and LH2), which pack tightly together in the chromatophore.
3 ature of membranes caused by proteins in the chromatophore.
4 e often arranged in pseudo-organelles called chromatophores.
5 ions of the bacterial plasma membrane termed chromatophores.
6 f the bc(1) activity found in the complement chromatophores.
7  are affected by mutations in three types of chromatophores.
8 e carotenoid bandshift in both B187DN and WT chromatophores.
9 were similar (+/- 15%) in both WT and B187DN chromatophores.
10  bandshift of carotenoids in Rb. sphaeroides chromatophores.
11 ment of different types of pigment-producing chromatophores.
12                              Comparison with chromatophore abundance and position in extant reptiles
13                            DCCD treatment of chromatophores also slows down the kinetics of flash-ind
14                 After 11 days, ICM vesicles (chromatophores) and membrane invagination sites were iso
15 rane (intracytoplasmic membrane and air-aged chromatophore), and purified bc(1) complex was prepared
16 nthetic electron transfer in whole cells, in chromatophores, and with purified components to ascertai
17              Acting as primitive organelles, chromatophores are densely packed with the membrane prot
18   The zebrafish has three different types of chromatophores: black melanophores, yellow xanthophores,
19                           The shape of these chromatophores can be spherical (as in Rhodobacter sphae
20 1 complex, purified from RS delta IV-adapted chromatophores containing a fraction of the wild type cy
21 ionary origin ( approximately 60 Mya) termed chromatophores (CRs).
22                   In Rhodobacter sphaeroides chromatophores, cytochromes (cyt) c(1) and c(2) have clo
23                     In the zebrafish embryo, chromatophores derive from the neural crest cells.
24 C migratory onset and strongly contribute to chromatophore development.
25 lex, which has not been imaged yet in native chromatophores, did not induce a preferred membrane curv
26 using either purified or detergent dispersed chromatophore-embedded R. capsulatus bc(1) complex, we d
27 n of the chromatophore muscles, resulting in chromatophore expansion.
28  EGT-derived proteins could be imported into chromatophores for function.
29                                 A model of a chromatophore from Rhodospirillum photometricum was cons
30 rane fragments derived from bacterial cells (chromatophores from Rhodopseudomonas sphaeroides) and ma
31  bandshift of carotenoids in Rb. sphaeroides chromatophores from wild type (WT) and mutant cells, in
32 e isolation intracytoplasmic (ICM) vesicles (chromatophores) from Rhodopseudomonas sphaeroides using
33       Our analyses revealed that nuclear and chromatophore gene inventories provide highly complement
34  light-induced transcriptional regulation of chromatophore genes and most EGT-derived nuclear genes.
35                                          The chromatophore genome is about a third the size of the ge
36                                              Chromatophore genome reduction entailed the loss of many
37 Several genes have been transferred from the chromatophore genome to the host nuclear genome through
38 ly 25% putatively arose through EGT from the chromatophore genome.
39  csos4A) are encoded by both the nuclear and chromatophore genomes, suggesting that EGT in Paulinella
40 cohydrolase (DRAG) with membrane proteins of chromatophores has been investigated.
41 otein complexes, now known as ribosomes, and chromatophores in photosynthetic microorganisms attracte
42 concentration was identical in WT and B187DN chromatophores, indicating that covalent modification of
43 out chromatophores or in detergent-disrupted chromatophores, indicating that position 175 of cytochro
44 tergent disruption of the sealed, inside-out chromatophores, indicating that this position of cytochr
45                                 The shape of chromatophores is primarily dependent on species, and is
46                Time-resolved fluorescence of chromatophores isolated from strains of Rhodobacter spha
47           We conclude that DCCD treatment of chromatophores leads to modification of the rate of Q(o)
48 opositive cells are present in the posterior chromatophore lobe, the putative location of the chromat
49 Famide-immunopositive cells in the posterior chromatophore lobes also express glutamate-like immunore
50 g regions are on the cytoplasmic side of the chromatophore membrane and closed to the DE loop and hel
51 omplex formation was observed both in native chromatophore membrane and in chromatophores treated wit
52                                              Chromatophore membrane and intracytoplasmic membrane (IC
53 h the association of DRAG with three or more chromatophore membrane proteins.
54  cytochrome b on the periplasmic side of the chromatophore membrane.
55 onstructed by site-directed mutagenesis, and chromatophore membranes as well as purified bc1 complexe
56            The number of acidocalcisomes and chromatophore membranes as well as the amounts of PPi an
57 sh activation through the reaction center in chromatophore membranes from Rhodobacter sphaeroides, ha
58 lex, the steady-state level of cyt cy in the chromatophore membranes obtained using cells grown in mi
59 -subunit cytochrome (cyt) b-c1 subcomplex in chromatophore membranes of Rhodobacter capsulatus mutant
60    In this study, CooC was purified from the chromatophore membranes of Rhodospirillum rubrum with a
61 entified and thought to be localized only to chromatophore membranes, is predominantly located in aci
62 ible candidates for association with DRAG in chromatophore membranes.
63  acidocalcisomes but in PPi synthesis in the chromatophore membranes.
64 he as yet incomplete integration of host and chromatophore metabolisms.
65 matophore lobe, the putative location of the chromatophore motoneuron somata.
66  situ hybridization shows that some putative chromatophore motoneurons express FaRP-like immunoreacti
67 ty is also present in the somata of putative chromatophore motoneurons.
68 les directly innervated by centrally located chromatophore motoneurons.
69 Pharmacological studies demonstrate that the chromatophore muscles contain receptors blocked by gluta
70 gans, each of which is regulated by a set of chromatophore muscles directly innervated by centrally l
71 pplication causes a rapid contraction of the chromatophore muscles, resulting in chromatophore expans
72 ata show that FMRFamide acts directly on the chromatophore muscles.
73  FMRFamide application causes contraction of chromatophore muscles; however, the FMRFamide effect is
74 ty and function of the transmitter(s) at the chromatophore neuromuscular junction (NMJ) in the Europe
75 low transmitters, respectively, at the Sepia chromatophore NMJ.
76 ate likely acts as a neurotransmitter at the chromatophore NMJ.
77 o function as neurotransmitters at the Sepia chromatophore NMJ.
78                                          The chromatophore of purple bacteria is an intracellular sph
79                                           In chromatophores of the purple bacterium Rhodobacter sphae
80              In intact cells and in isolated chromatophores of this mutant, only approximately 30% of
81 aleimide (NEM), either in sealed, inside-out chromatophores or in detergent-disrupted chromatophores,
82 the coordinated activity of millions of skin chromatophore organs, each of which is regulated by a se
83 s encode proteins that fill gaps in critical chromatophore pathways/processes.
84 y contracting muscles to reversibly activate chromatophores--pigment-containing cells under their ski
85  role for Pax7 in the early specification of chromatophore precursor cells.
86 estive of a Pax3-driven fate switch within a chromatophore precursor or stem cell.
87         Previous work on the D(LL) mutant in chromatophore preparations showed that RCs assembled wit
88                                              Chromatophores prepared from these two mutant cells have
89 iated predominately ipsilateral expansion of chromatophores present on the mantle, but not on the hea
90 nd -LH2 complexes from digitonin-solubilized chromatophores revealed high levels of comigrating elect
91          The implications of our results for chromatophore shape are discussed.
92  different photosynthetic proteins influence chromatophore shape is presented.
93                                              Chromatophore shape is thought to be influenced by the i
94 key role in controlling the expansion of the chromatophores that generate these diverse body patterns
95 formance is further optimized by phototropic chromatophores that regulate the dose of illumination re
96 um-derived photosynthetic organelles termed 'chromatophores' that originated relatively recently (0.0
97 a, which contains photosynthetic organelles (chromatophores) that are only 60-200 million years old.
98  we have observed in Rhodobacter sphaeroides chromatophores, that when a fraction of heme b(H) is red
99  Binding of ligands (cytochrome c(2) for the chromatophores, the peptide agonists DAMGO and melanotan
100 both in native chromatophore membrane and in chromatophores treated with 0.5 M NaCl in the presence o
101 evel structural model of a low-light-adapted chromatophore vesicle from Rhodobacter sphaeroides, we i
102   An all-atom structural model for an entire chromatophore vesicle is presented, which improves upon
103                  The overall architecture of chromatophore vesicles and the structural integration of
104                               Photosynthetic chromatophore vesicles found in some purple bacteria con
105 cteria is contained within organelles called chromatophores, which form as extensions of the cytoplas
106 ed by neural crest-derived pigment cells, or chromatophores, which include black melanophores, yellow
107 in) [9, 10], preserves dermal pigment cells (chromatophores)-xanthophores, iridophores, and melanopho

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