ライフサイエンスコーパス: plant transformation

1 eparate expression vectors and combinatorial plant transformation.

2 f the most widely used selectable markers in plant transformation.

3 ll inform methods of genetic engineering and plant transformation.

4 -box (SCF)-E3 ligase complex and its role in plant transformation.

5 SK2, are required for Agrobacterium-mediated plant transformation.

6 roteins important for Agrobacterium-mediated plant transformation.

7 protein that associates with SCF-complex, in plant transformation.

8 rtant for Agrobacterium tumefaciens-mediated plant transformation.

9 introduced into Arabidopsis thaliana through plant transformation.

10 y-friendly, dominant, selectable markers for plant transformation.

11 of T-DNA into the genome after Agro-mediated plant transformation.

12 crop improvement process are steps involving plant transformation.

13 efficient and versatile DNA fabrication for plant transformation.

14 eries of binary vectors were constructed for plant transformation.

15 o a binary vector for Agrobacterium-mediated plant transformation.

16 sed if these YACs could be used directly for plant transformation.

17 government organizations working to improve plant transformation.

18 n enhanced system for Agrobacterium-mediated plant transformation, a new binary bacterial artificial

19 76B1 can function as a selectable marker for plant transformation, allowing efficient selection in vi

20 Agrobacterium-mediated plant transformation (AMT) is the basis of modern-day pl

21 ved Agrobacterium strains for more efficient plant transformation and gene editing.

22 next introduced a ZFN into soybean via whole-plant transformation and generated independent mutations

23 Here, we review the state of plant transformation and point to innovations needed to

24 the evolving need for unifying principles in plant transformation and species agnostic technologies h

25 the evolving need for unifying principles in plant transformation and species-agnostic technologies h

26 independent of tissue culture and efficient plant transformation and therefore applicable to any pla

27 eviously characterized genetic locus to make plant transformation and transgene expression predictabl

28 ew domesticated strains capable of promoting plant transformation and/or regeneration in diverse plan

29 pathogenicity, their usefulness as tools for plant transformation, and their use as a model for the s

30 pular dominant selectable marker systems for plant transformation are based on either antibiotic or h

31 ing genes involved in Agrobacterium-mediated plant transformation, AtVIP2 overexpressor line showed d

32 only plays a role in Agrobacterium-mediated plant transformation but also acts as a general transcri

33 C libraries to be modified (retrofitted) for plant transformation by direct DNA transfer methods, suc

34 Therefore, we could provide a new utility of plant transformation by the particle bombardment method

35 map was constructed from the clones of a new plant-transformation-competent BIBAC library and is inte

36 e, bacterial artificial chromosome (BAC) and plant-transformation-competent binary large-insert plasm

37 lence gene expression and enhanced transient plant transformation efficiency, suggesting a pathogenic

38 ion, stable transformation productivity, and plant transformation efficiency.

39 arizes key strategies recently developed for plant transformation, focusing on groundbreaking technol

40 Plant transformation has enabled fundamental insights in

41 n of plasmid-genomic DNA junctions following plant transformation has established links between DNA d

42 decades, Agrobacterium tumefaciens-mediated plant transformation has played an integral role in adva

43 We used plant transformation, in vitro enzyme assays, population

44 Plant transformation is an important part of plant resea

45 We discuss recent advances on plant transformation made possible by studying genes con

46 By adopting a general plant transformation method, plantlets with a desired DN

47 With current plant transformation methods ( Agrobacterium, biolistics

48 nificant step towards the full automation of plant transformation pipelines.

49 gap between existing mapping techniques and plant transformation procedures.

50 Elucidating plant transformation products of trace organic contamina

51 new targets to improve crop performance and plant transformation protocols that involve tissue wound

52 vectors of choice in Agrobacterium-mediated plant transformation protocols.

53 rtments and carbon-concentrating mechanisms, plant transformation strategies, replacement of Rubisco

54 ed mutations and should be applicable to any plant transformation system.

55 potential game-changer in crop genetics when plant transformation systems are optimized.

56 Plant transformation techniques are another innovation r

57 ell-characterized during the >30 years since plant transformation techniques were developed.

58 pelled basic as well as applied interests in plant transformation technologies.

59 Plant transformation technology is frequently the rate-l

60 We used plant transformation technology to delineate the functio

61 " plasmid vectors for Agrobacterium-mediated plant transformation that translationally fuse FLAG, HA,

62 rgence of synthetic biology, which relies on plant transformation to manipulate plant DNA and gene ex

63 tion of a novel series of Gateway-compatible plant transformation vectors containing genes encoding a

64 combination to efficiently assemble DNA into plant transformation vectors.

65 ) vector suitable for Agrobacterium-mediated plant transformation with high-molecular-weight DNA was

66 sembly and synthesis of large DNA molecules, plant transformation with linked multigenes and plant ar

67 ansformation of Arabidopsis allows efficient plant transformation without need for tissue culture.