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1 be valuable materials for gene targeting and chromosome engineering.
2 6 in mice using Cre/loxP-mediated long-range chromosome engineering.
3 ession, protein localization, epistasis, and chromosome engineering.
4 el of a human deletion syndrome generated by chromosome engineering.
5 s, in vivo synthetic lethality screening and chromosome engineering.
6 s in vertebrates and as a tool for mammalian chromosome engineering.
7          Using a rapid strategy for Cre-loxP chromosome engineering, a deletion of approximately 370
8                       (2020) combine in vivo chromosome engineering and Drosophila genetics to assess
9 nt on the X chromosome of D. melanogaster by chromosome engineering and found that, although the dele
10 is possible to use retroviral gene delivery, chromosome engineering and inducible transgenes to selec
11           Here we have used a combination of chromosome engineering and P1 artificial chromosome tran
12                  As new technologies such as chromosome engineering and the creation of transchromoso
13 ation methods in plants will potentiate many chromosome engineering applications.
14                           Recent advances in chromosome engineering are now allowing us to create pre
15     We then discuss how promoter editing and chromosome engineering are used in crop breeding for tra
16  the vector can be used for Cre- loxP -based chromosome engineering as well as single knockouts.
17 ch expands the application of Cre-loxP-based chromosome engineering because it not only allows the co
18                                      In vivo chromosome engineering can be potentially used to achiev
19  have developed three new mouse models using chromosome engineering carrying the genotypes of Dp(10)1
20                                              Chromosome engineering combines the power of gene target
21                                    The term "chromosome engineering" describes technologies in which
22        Here, we report an improved scheme of chromosome engineering for efficient elimination of a la
23                                     Targeted chromosome engineering has facilitated the development o
24 ions, and inversions) into the mouse genome (chromosome engineering) has been established.
25 tion system has been developed for efficient chromosome engineering in Escherichia coli by using elec
26  a highly efficient recombination system for chromosome engineering in Escherichia coli was described
27 is study has demonstrated great potential of chromosome engineering in genome manipulation for plant
28                                              Chromosome engineering in mice enables the construction
29                                  Here we use chromosome engineering in mice to show that a single ext
30 9 multiplexing, as well as opportunities for chromosome engineering in the context of hepatobiliary t
31           These developments permit faithful chromosome engineering in the context of metazoan cells.
32                                              Chromosome engineering is a major focus in the fields of
33                                              Chromosome engineering is a useful strategy for transfer
34 his system will be especially useful for the chromosome engineering of large heterologous fragment in
35 at-A. comosa chromosome translocations using chromosome engineering procedures.
36                                              Chromosome engineering produces a reduced eight-chromoso
37         The results will facilitate directed chromosome engineering producing agronomically desirable
38 e a public resource (Mutagenic Insertion and Chromosome Engineering Resource; MICER) for high-through
39                  We used mutagenic insertion chromosome engineering resources to generate the Plp1dup
40                          We have developed a chromosome engineering strategy that allows the generati
41                         We have used a mouse chromosome engineering strategy to create a null mutatio
42                               We have used a chromosome engineering strategy to identify a human auto
43                             Finally, using a chromosome engineering strategy, we show that only a sub
44                                      Another chromosome engineering success is the conversion of meio
45                            Here, we report a chromosome engineering system for neocentromere formatio
46 des a basis to use autopolyploidization as a chromosome engineering technique to alter the organ deve
47                                  Here, using chromosome engineering technology, we delete in the germ
48                             This new form of chromosome engineering, termed recombineering, has many
49   This review examines recent innovations in chromosome engineering that promise to greatly increase
50                                      We used chromosome engineering to create mice that were trisomic
51 -2 and Df(11)17-3] using retrovirus-mediated chromosome engineering to create nested deletions.
52  cause DS phenotypes, including CHD, we used chromosome engineering to generate a mapping panel of 7
53 egion further, we utilized Cre-loxP-mediated chromosome engineering to generate a targeted 800 kb del
54 16p11.2 CNVs in a systematic manner, we used chromosome engineering to generate mice harboring deleti
55                                  Here we use chromosome engineering to generate mouse models with gai
56 ring germ cell development, we used targeted chromosome engineering to generate mutants which either
57                    In particular, the use of chromosome engineering to generate new trisomic mouse mo
58 etween homoeologues and is routinely used in chromosome engineering to introgress alien variation int
59                                 We have used chromosome engineering to replace native centromeric DNA
60 loid cells using CRISPR Targeting), a set of chromosome engineering tools that allow us to eliminate