ライフサイエンスコーパス: rhizobacteria

1 dent resistance response induced by specific rhizobacteria.

2 lant defense by and ecological competence of rhizobacteria.

3 production of exopolymers by plant roots and rhizobacteria.

4 s and accumulation of periplasmic glucans by rhizobacteria.

5 t for successful rhizosphere colonization by rhizobacteria.

6 ficial bacteria (i.e. plant-growth-promoting rhizobacteria and nitrogen fixers) and were specifically

7 ydroperoxide lyase in plant growth-promoting rhizobacteria, AOS in coral, and epoxyalcohol synthase i

8 This indicates that the direction of a rhizobacteria-aphid indirect effect could influence the

9 Locus (QTL) mapping study, where we mapped a rhizobacteria-aphid indirect effect onto the barley geno

10 ons of the barley genome associated with the rhizobacteria-aphid indirect effect.

11 strains isolated from among the diversity of rhizobacteria associated with take-all decline.

12 t evidence that the root colonization of the rhizobacteria Bacillus subtilis FB17 (hereafter FB17) re

13 tion in the rhizosphere increased beneficial rhizobacteria Bacillus subtilis FB17 (hereafter FB17) ti

14 ria are best known as plant growth-promoting rhizobacteria but have also been recovered from clinical

15 ile organic compounds (VOCs) associated with rhizobacteria can initiate ISR.

16 chemical for recruitment of plant-beneficial rhizobacteria during the relatively young and vulnerable

17 illage practices that favor growth-promoting rhizobacteria, earthworms, predatory mites, and other be

18 These results demonstrate that certain rhizobacteria elevate photosynthesis through the modulat

19 icroorganisms, such as mycorrhizal fungi and rhizobacteria, establish mutualistic interactions with p

20 crete L-MA and effectively signal beneficial rhizobacteria establishes a regulatory role of root meta

21 Exposure to VOCs from rhizobacteria for as little as 4 d was sufficient to act

22 e role of bacteria in the wheat rhizosphere (rhizobacteria) in a well-documented induced suppression

23 Plant growth-promoting rhizobacteria, in association with plant roots, can trig

24 Rhizobacteria introduced to control soil-borne root dise

25 suppression of take-all by these beneficial rhizobacteria is the centerpiece of an integrated system

26 esistance induced in plants by nonpathogenic rhizobacteria is typically effective against multiple pa

27 sphere and that most (1)(5)N was captured by rhizobacteria, leading to very high (1)(5)N microbial en

28 Certain rhizobacteria may induce systemic host resistance to nem

29 n of an esterified defense metabolite during rhizobacteria-mediated induced systemic resistance, show

30 n Arabidopsis for the ability to profit from rhizobacteria-mediated plant growth-promotion.

31 -elicited alterations in root morphology and rhizobacteria-mediated systemic immunity are mediated by

32 ulator L. emarginata and the contribution of rhizobacteria on the dissolution rate of chrysotile.

33 Plant growth promoting rhizobacteria (PGPR) can associate and enhance the growt

34 mycorrhizal fungi and plant growth-promoting rhizobacteria (PGPR) can improve plant health via enhanc

35 (Col-0) treated with plant growth-promoting rhizobacteria (PGPR) Serattia marcescens strain 90-166 a

36 emicals is the use of plant growth-promoting rhizobacteria (PGPR), which are commonly associated with

37 l are associated with plant growth-promoting rhizobacteria (PGPR).

38 Plant defense by rhizobacteria producing antibiotics on roots and as coha

39 Pseudomonas spp. rhizobacteria represent one of the most abundant genera

40 ial role of auxin signaling and transport in rhizobacteria-stimulated changes in the root system arch

41 subalbicans is a well-known growth-promoting rhizobacteria that can also act as a mild phyto-pathogen

42 sis mutants revealed that, unlike many other rhizobacteria, the Pf.SS101-induced resistance response

43 The adaptation of rhizobacteria to hypoosmotic environments is also examin

44 a remarkable strategy adapted by beneficial rhizobacteria to suppress a host defense response, which

45 teraction, because it was not expressed when rhizobacteria was supplemented.

46 A wide diversity of rhizobacteria with similarity to known halotolerant taxa