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1 ped by a lipid bilayer membrane, produced by magnetotactic bacteria.
2 ents on active colloidal Janus particles and magnetotactic bacteria.
3 ogenic magnetic nanomaterials synthesized by magnetotactic bacteria.
4 roduction of nano-scale magnetic crystals in magnetotactic bacteria.
5 zed chains of magnetite crystals produced by magnetotactic bacteria.
6 vo studies of magnetite biomineralization in magnetotactic bacteria.
7 sembly, and probing the sensing apparatus of magnetotactic bacteria.
8 mologs from animals and plants as well as in magnetotactic bacteria.
9 particles formed by biomineralization within magnetotactic bacteria.
10 s -- magnetosensing -- is best understood in magnetotactic bacteria.
11 nd morphology indistinguishable from that of magnetotactic bacteria.
12 localization throughout the growth cycle of magnetotactic bacteria.
13 microstructure of magnetite nanocrystals in magnetotactic bacteria.
14 ze continuously, exceeding sizes observed in magnetotactic bacteria.
15 omineralization of magnetic nanoparticles in magnetotactic bacteria.
16 chrome domains that are found exclusively in magnetotactic bacteria.
17 It plays a central role in the behavior of magnetotactic bacteria and also appears to be important
19 oth accessing the magnetosomes within intact magnetotactic bacteria and compare these to scanning ele
21 McaA and McaB homologs are widespread among magnetotactic bacteria and may represent an ancient stra
22 Most organisms are simply diamagnetic, while magnetotactic bacteria and migratory animals are among o
23 find that pseudoproteases are widespread in magnetotactic bacteria and that they have evolved indepe
26 heless, living organisms such as chitons and magnetotactic bacteria are able to form magnetite crysta
35 tite (Fe(3)O(4)) by two different species of magnetotactic bacteria at temperatures between 4 degrees
38 ains), observed or inferred to be present in magnetotactic bacteria but incompatible with a nonbiolog
40 be addressed in future investigations of how magnetotactic bacteria construct their magnetic compass
44 fluidic experiments, we show that individual magnetotactic bacteria directed upstream through pores d
48 Intracellular magnetite crystal formation by magnetotactic bacteria has emerged as a powerful model f
50 ecial properties of these magnetic crystals, magnetotactic bacteria have been exploited for a variety
54 pothesize that over the course of evolution, magnetotactic bacteria have thus evolved to produce magn
55 ent-mimicking obstacles to study swimming of magnetotactic bacteria in a near-realistic environment.
56 understanding of the survival strategies of magnetotactic bacteria in sediments and for developing t
60 ically steerable microswimmers, specifically magnetotactic bacteria, in strong spatial confinement an
61 ctive motion where a uniform distribution of magnetotactic bacteria is rendered unstable by a magneti
63 ne clade, represented by the MamK protein of magnetotactic bacteria, is required for the subcellular
65 e-like magnetofossils, as well as nano-sized magnetotactic bacteria magnetosome chains, have been rep
76 (magnetosome) compositions biosynthesized by magnetotactic bacteria (MTB), the magnetic properties of
77 etite crystals, resembling those produced by magnetotactic bacteria (MTB), which have been used as ev
78 ed magnetoreception behaviour is that of the magnetotactic bacteria (MTB), which synthesize membrane-
79 ineralization of magnetite occurs rapidly in magnetotactic bacteria on a similar time scale to high-t
83 , and hydrodynamic mobilities across diverse magnetotactic bacteria reveals that these variables cova
84 an the chain patterns observed in a cultured magnetotactic bacteria sample or magnetofossils in extra
89 RS-1, the only reported species of cultured magnetotactic bacteria that is outside of the alpha-Prot
90 MamK, represents a clade, primarily found in magnetotactic bacteria, that is involved in the proper o
91 ge of the properties and function of MamK in magnetotactic bacteria, this study emphasizes the functi
92 ries, we observe the motion of multicellular magnetotactic bacteria through an artificial pore space
95 emonstrate magnetic imaging of living cells (magnetotactic bacteria) under ambient laboratory conditi
97 l CDF protein MamM, an iron transporter from magnetotactic bacteria, was used to probe the role of th
98 (2) to 10(3) times stronger than free-living magnetotactic bacteria), well above the threshold for th
100 he magnetic fields produced by the motion of magnetotactic bacteria, which have permanent dipole mome
104 terize the magneto-aerotactic behavior of 12 magnetotactic bacteria with various morphologies, phylog