ライフサイエンスコーパス: lawn

1 application to the phage-infected bacterial lawn.

2 ks inscribed as they move through an E. coli lawn.

3 ans starts to vacate the pathogenic bacteria lawn.

4 indicated by plaque formation in a bacterial lawn.

5 , also failed to produce plaques on a mutant lawn.

6 cula of 10(5)-10(6) cells per plate formed a lawn.

7 ofilm matrix as they move through a Yersinia lawn.

8 nd generated the largest plaques on the slyD lawn.

9 mutants of phi X174 were isolated on a slyD lawn.

10 these amoebae and leave an intact bacterial lawn.

11 with best growth on membranes over "helper" lawns.

12 nifera) appeared to migrate more easily into lawns.

13 thodologies, with emission rates greatest in lawns.

14 igration, forming large plaques on bacterial lawns.

15 bacteria and form plaques in their bacterial lawns.

16 lopment and display slow growth on bacterial lawns.

17 Solitary foragers move slowly on a bacterial lawn and disperse across it, while social foragers move

18 Lawn and garden pesticide use was associated with breast

19 extent of developed land use and cultivated lawn and gardens around a pond.

20 er, we create well-defined replicates of the lawn and quantitatively study the population expansion o

21 utant, which does not aggregate on bacterial lawns and arrests as loose mounds on nitrocellulose filt

22 face flows (primarily from overirrigation of lawns and ornamental plants) harbor FIB at concentration

23 uburban neighborhoods (e.g., from forests to lawns and ornamental plants) increase the distribution o

24 Ticks were sampled from lawns and woodlands by dragging flannel over the vegetat

25 types (evergreen trees, deciduous trees and lawn) and (ii) different ages (constructed 10, approxima

26 had a specific swarm rate reduction on prey lawns, and thus reduced fitness, compared to an isogenic

27 the dominant lawn fluxes, and the fact that lawns are unlikely to dry out, climate warming may subst

28 All five strains that grew as confluent lawns around Hb discs possessed either 9 or 12 consecuti

29 location, assessed using the plasma membrane lawn assay.

30 y clear circular zones of lysis on bacterial lawns at the site of gamma phage inoculation after incub

31 of sensory neurons to inhibit P. aeruginosa lawn avoidance behaviour through inhibition of the neuro

32 have previously shown promotes P. aeruginosa lawn avoidance behaviour.

33 Higher initial lawn bacterial densities could also contribute to faster

34 ficacy of antibiotics against planktonic and lawn biofilm bacteria.

35 one and in combination was evaluated against lawn biofilms of bioluminescent strains of Staphylococcu

36 elution and activity against planktonic and lawn biofilms.

37 Specifically, N2 exhibits lawn bordering and roaming behavior on mucoid nonpathoge

38 nts do not aggregate in plaques on bacterial lawns, but they do proceed further in development on nit

39 teria, form visible lesions within bacterial lawns (called plaques), which are employed ubiquitously

40 atives in environmental golf and sustainable lawn care are explored.

41 These results suggest that US lawn care behaviors are more differentiated in practice

42 r yard") to 0.24 (trans-nonachlor and "store lawn care products in garage").

43 ies the framework to the case of residential lawn care.

44 When developing on a bacterial lawn, cells of the mutant strain (dtfA- cells) aggregate

45 On Pseudomonas aeruginosa lawns, cleared plaques were observed with the bacterial

46 1 mutant formed smaller plaques on bacterial lawns compared with those of the WT.

47 onto cellulose-acetate membranes placed over lawn cultures of helper strains.

48 This was based on up-scaled lawn emissions of 1.2-1.5 g CH4 m(-2) , vs. an up-scaled

49 marsh-to-upland transects in both wooded and lawn environments.

50 uipped with a three-way catalytic converter, lawn equipment, utility vehicles, urban buses, semitruck

51 ubwatersheds of the Mississippi River in St. Lawn fertilizer and pet waste dominated N and P inputs,

52 Two behaviors are examined: lawn fertilizing and irrigating.

53 rong temperature sensitivity of the dominant lawn fluxes, and the fact that lawns are unlikely to dry

54 Why insect control on lawns, golf courses, and sport fields remains insecticid

55 soil that suppressed brown patch disease of lawn grass.

56 ental phosphorylation of an NDC80 molecular "lawn," in which the NDC80-MT bonds reorganize dynamicall

57 microtopographical subunits (sedge-dominated lawns, interhummocks and hummocks) within an aapa mire i

58 at do form when cells are grown on bacterial lawns lack the one- and two-dimensional symmetries so ap

59 Others produced lawn-like growth largely devoid of typical microcolonies

60 iatric operations attains the magnitude of a lawn mower and peaks resemble a passing truck.

61 ere more likely than controls to have used a lawn mower or brush cutter in the two weeks before the i

62 ak of primary pneumonic tularemia implicates lawn mowing and brush cutting as risk factors for this i

63 Lawn mowing and brush cutting remained significant risk

64 entiation involving the formation of a dense lawn of aerial hyphae that grow away from the colony sur

65 often visualized as plaques, or holes, in a lawn of bacteria on an agar-filled Petri dish; however,

66 s of a synthetic sensor kinase that allows a lawn of bacteria to function as a biological film, such

67 short time (3-5 hours) before transfer to a lawn of E. coli.

68 th in batch culture and in patterns across a lawn of engineered cells.

69 myces coelicolor involves the formation of a lawn of hair-like aerial hyphae on the colony surface th

70 mination, and forms far smaller plaques on a lawn of Klebsiella aerogenes.

71 s a large prominent halo around plaques on a lawn of M. smegmatis.

72 ing spots of localized transfection within a lawn of non-transfected cells.

73 (OS-Seq), in which we modify the immobilized lawn of oligonucleotide primers of a next-generation DNA

74 affect C. elegans behavioural avoidance of a lawn of Pseudomonas aeruginosa.

75 The spread of viruses on a homogeneous lawn of receptive hosts provides an opportunity to detec

76 ant, we placed SeLECT-Defense sealant over a lawn of S. mutans.

77 s die with similar kinetics when placed on a lawn of S. typhimurium for a relatively short time (3-5

78 When C. elegans is placed on a lawn of S. typhimurium, the bacteria accumulate in the l

79 ngless or armadillo mutant embryos secrete a lawn of ventral denticles; armadillo mutants also exhibi

80 We found that a uniform lawn of wild type neuroligins displayed on the cell surf

81 ragments should be able to form plaques on a lawn of wild-type Escherichia coli (i.e., lacking supF).

82 pends on continuous C. elegans exposure to a lawn of Yersinia bacteria.

83 -containing cells on solid medium containing lawns of bacteria of the same (plasmid-containing) strai

84 We found that for N2 worms grown on mixed lawns of bacteria, Salmonella enterica serovar Typhimuri

85 c behavior: the aggregation of C. elegans on lawns of bacterial food.

86 D29 forms clear plaques on lawns of Mycobacterium smegmatis and Mycobacterium bovis

87 multiple life cycles of amoebae grown on the lawns of other bacteria, thus demonstrating a stable rel

88 we allowed Caenorhabditis elegans to feed on lawns of P. aeruginosa PAO1 grown on high and low phosph

89 Lawns of transformants were grown at the permissive temp

90 rnema jollieti nematodes cultivated on mixed lawns of X. bovienii expressing green or DsRed fluoresce

91 ill able to predate when directly applied to lawns of YFP-labelled prey bacteria, showing that flagel

92 imensional propagation of viruses through a "lawn" of receptive hosts, commonly called plaque growth,

93 ork variants, an initially undifferentiated 'lawn' of receivers is engineered to form a bullseye patt

94 ent P. aeruginosa strains, the bacteria form lawns on these plates with amoebae embedded in them.

95 l [CI], 1.1-6.7) and the use of professional lawn or landscape services (OR, 2.8; CI, 1.0-8.2).

96 cted by whether the upland being invaded was lawn or wooded, but the marsh-edge plant communities tha

97 The carbohydrate is present in bacterial lawns prior to addition of nematodes, indicating that bi

98 the adjacent upland is likely to be a mowed lawn rather than a wooded natural area.

99 n a spatially heterogeneous Escherichia coli lawn serves as an experimental model system to study pop

100 The addition of SA to P. aeruginosa lawns significantly diminished the bacterium's ability t

101 ly Chloridoideae, is widely used in domestic lawns, sports fields and as forage.

102 of this source by studying decomposition in lawns, street gutters, and catch basins during two winte

103 (-) is more aberrant in plaques on bacterial lawns than on nitrocellulose filters.

104 In contrast, lawns that were exposed to a 48 h microaerobic shock gen

105 nclude typical ecosystems in suburban yards: lawn, trees, water reservoirs, and a vegetable garden; t

106 tap water that was used to supply water to a lawn water slide on which the child had played extensive

107 In the assay, bacterial lawns were grown on agar plates, harvested with phosphat

108 CH4 fluxes from lawns were strongly related to seasonal fluctuations in

109 on showed improved robustness when bacterial lawns were tested with high- and low-density inoculum us

110 retained the ability to grow as a confluent lawn, while seven grew only as single colonies around Hb