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1 nd an organelle with evolutionary origins in aerobic bacteria.
2 e cell respiratory chain in mitochondria and aerobic bacteria.
3  transfer factors can also be transmitted to aerobic bacteria.
4 > or = 10(5) colony forming units/ml BALF of aerobic bacteria.
5 ul) for survival of anaerobic and fastidious aerobic bacteria.
6 this bottle also supports the growth of most aerobic bacteria.
7 ggressive colitis than those associated with aerobic bacteria.
8 ome anaerobic bacteria and is absent in some aerobic bacteria.
9 nd lacked the a and b subunits found in many aerobic bacteria.
10  Bph pathway for biphenyl/PCB degradation in aerobic bacteria.
11 ic bacteria (50% of isolates), gram-negative aerobic bacteria (30%), and anaerobes and yeasts (10% ea
12           Liver aspirates grew gram-positive aerobic bacteria (50% of isolates), gram-negative aerobi
13 a significant reduction in microbial growth (aerobic bacteria, aerobic yeasts, and fungi) at 15- and
14 erpretive standards for gram-positive and/or aerobic bacteria, all cultures were susceptible to amoxi
15 ng environments, and BNF has evolved even in aerobic bacteria, although the function of nitrogenase i
16                      Class-Ia RNRs, found in aerobic bacteria and all eukaryotes, are a complex of tw
17 espiratory oxidases in mitochondria and many aerobic bacteria and archaea, coupling the reduction of
18 olatile fatty acids, ideal substrate to feed aerobic bacteria and produce more PHA.
19          Significant reductions in the total aerobic bacteria and total yeast and molds were observed
20                          These Gram-negative aerobic bacteria are characterized by an outer membrane
21 anode due to the presence of facultative and aerobic bacteria as O2 sinkers.
22              We observe reduced abundance of aerobic bacteria as well as metabolic pathways associate
23 y and anaerobic bacteria, and an increase in aerobic bacteria at Week 2.
24 ere, we describe a class of systems in which aerobic bacteria Bacillus subtilis moving randomly in a
25 s caused by any species of the Gram-negative aerobic bacteria belonging to the genus Legionella; Legi
26                   The presence of mesophilic aerobic bacteria, coliform bacteria, Escherichia coli an
27 with malonate as the sole carbon source.Some aerobic bacteria contain a biotin-independent malonate d
28  dimethyl disulfide was related to the total aerobic bacteria count.
29  (TMY) by 1.80 log CFU g(-1), and mesophilic aerobic bacteria counts (TMAB) decreased (p < 0.05) by 0
30 8d storage at 10 degrees C and correlated to aerobic bacteria counts, yeast and mold counts, and degr
31 nate, Fenton reagents), acid hydrolysis, and aerobic bacteria cultures (species of Aquincola, Methyli
32 delta-proteobacterial genomes, including two aerobic bacteria exhibiting predatory behavior and three
33 positively correlated with soil temperature, aerobic bacteria, facultatively anaerobic bacteria and p
34 viabilities of both anaerobic and fastidious aerobic bacteria for 24 h for the majority of the organi
35 maternal SIgA prevented the translocation of aerobic bacteria from the neonatal gut into draining lym
36                       Bacterial culture grew aerobic bacteria from three cysts/cavities, anaerobic ba
37                Pseudomonas species and other aerobic bacteria have a biotin-independent malonate deca
38 urvival limits and physiological response of aerobic bacteria in ammonia, and whether ammonia toxicit
39 rate for the identification of Gram-positive aerobic bacteria in the clinical laboratory setting.
40 increased the ratio between lactic and total aerobic bacteria, increased water-holding capacity of fa
41 ological oxidation of methane to methanol by aerobic bacteria is catalysed by two different enzymes,
42                                              Aerobic bacteria (mainly Solibacter) were more abundant
43 robes remains largely elusive in contrast to aerobic bacteria, mainly due to the requirement of sophi
44                                              Aerobic bacteria only were recovered from 9 (36%) specim
45 of aerobic metabolism in prokaryotes to form aerobic bacteria (protoflagella and protomitochondria) p
46                                              Aerobic bacteria remove the acyl side chain from phenylp
47                                         Most aerobic bacteria secrete siderophores to facilitate iron
48 a by culture and pyrosequencing was good for aerobic bacteria such as P. aeruginosa (kappa = 0.84) bu
49 ype cytochrome c oxidase in mitochondria and aerobic bacteria such as Rhodobacter sphaeroides require
50 hane production in the MPPC, the presence of aerobic bacteria suggests that H2O2 diffusion to the ano
51 cate that CPT decreased the total mesophilic aerobic bacteria (TMAB) by 0.37-1.41 log CFU/g and total
52 om one consisting primarily of Gram-positive aerobic bacteria to one predominated by Gram-negative an
53                                      Diverse aerobic bacteria use atmospheric H(2) as an energy sourc
54              The ratio of total anaerobic to aerobic bacteria was 1000-fold greater in SFBL than in S
55 roduction of fecal aggregation agents, fecal aerobic bacteria were cultured, isolated, and identified
56 d anode biofilm for the two operating modes, aerobic bacteria were significant only on the side of th
57       They passed the bioburden test with no aerobic bacteria, yeasts/molds, with minimal moisture co