戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

コーパス検索結果 (1語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 s, but within breeds variation is limited by selective breeding.
2 pulations were maintained or strengthened by selective breeding.
3 that differed from the divergence induced by selective breeding.
4 o improve the sow prolificacy is possible by selective breeding.
5 e genome has hampered efforts to improve its selective breeding.
6 artificial selection subsequently imposed by selective breeding.
7 ges of the domestication process to optimize selective breeding.
8 eir domestication and subsequent episodes of selective breeding.
9 lton that humanity could be improved through selective breeding.
10                             In this regards, selective breeding abled us to develop "Nanchukmacdon" a
11              We conclude that, in this case, selective breeding acts at the subnetwork level, with th
12 found by following generational responses to selective breeding against FHD.
13 ves these compounds from plant foods through selective breeding and a variety of debittering processe
14 as such as livestock disease control through selective breeding and also in predicting and controllin
15 te-related traits that can be exacerbated by selective breeding and are challenging to manage under c
16 n to be amenable to genetic improvement with selective breeding and are recommended to be included in
17 y resource for cattle genetics and genomics, selective breeding and comparative biology.
18  plant and animal genetic studies to improve selective breeding and conservation efforts.
19 ly, they highlight the costs associated with selective breeding and question the practice favoring th
20 e target for controlling fertility to enable selective breeding and the efficient production of hybri
21   Some improvements have been gained through selective breeding and the isolation of additional speci
22 ga menziesii), reflecting trans-generational selective breeding application.
23        As the meat production industry seeks selective breeding approaches to improve profitable trai
24 el system not conducive to gene silencing or selective breeding are useful for other systems.
25  options for using assisted evolution (i.e., selective breeding, assisted gene flow, conditioning or
26   The current study examined whether and how selective breeding by humans has altered the gross organ
27                      The potential impact of selective breeding by man on this is discussed.
28 ility of coral heat tolerance indicates that selective breeding could be a viable tool to improve pop
29          Indeed, uniting genome editing with selective breeding could facilitate faster and better ou
30 terns, typically considered a consequence of selective breeding, could instead have occurred naturall
31                                   Short-term selective breeding created mouse lines divergent for eth
32                               Here, we use a selective breeding design in the Trinidadian guppy (Poec
33 L.), being under intensive domestication and selective breeding, displays an abundant phenotypic dive
34 n between these strains, which revealed that selective breeding enriched for high and low mef2ca para
35 digree of White Leghorn (WL) birds used in a selective breeding experiment testing susceptibility to
36 ng underlies metabolic disease risk, we used selective breeding for 15 generations to develop rat mod
37                                              Selective breeding for binge ethanol consumption and the
38                               Experiments in selective breeding for blood pH, sexual drive, body weig
39  being genetically segregated as a result of selective breeding for differences in neuropathic pain h
40       We performed short-term bi-directional selective breeding for haloperidol-induced catalepsy, st
41 ed across many loci after two generations of selective breeding for height, and responses of phenolog
42 ntrol lines from the sixteenth generation of selective breeding for high voluntary wheel running, hou
43                                     Years of selective breeding for low and high penetrance of mutant
44 25% of breeds tested and thus may facilitate selective breeding for sheep with reduced susceptibility
45                                Concerningly, selective breeding for short-stress tolerance did not im
46                                              Selective breeding for speed in the racehorse has result
47 e report the neuroanatomical consequences of selective breeding for tameness or aggression in the sem
48                                              Selective breeding for the combination of beneficial loc
49                                              Selective breeding for the naturally occurring social im
50 ntrol strain were developed by bidirectional selective breeding from the Wistar-Kyoto (WKY) rat, an a
51 and assisted gene flow may be compromised if selective breeding further increases the PEA frequencies
52 ate, size at maturity or genetic gender), as selective breeding has also resulted in genes that can h
53                     Evolution in the form of selective breeding has long been harnessed as a useful t
54                                     However, selective breeding has profoundly altered facial morphol
55                         It is concluded that selective breeding has resulted in lower connective tiss
56                                              Selective breeding has strongly reduced the genetic dive
57                 Controlled hybridization and selective breeding have been used for centuries to adapt
58                    The genetic substrates of selective breeding, however, remain largely unknown.
59                                      Through selective breeding, humans have driven exceptional morph
60          These results indicate that through selective breeding, humans have significantly altered th
61 e efficacy of protein markers for industrial selective breeding in any agricultural species, plant or
62 rolling traits relevant to recent decades of selective breeding in livestock.
63 ested as a source for habitat restoration or selective breeding in order to increase coral reef resil
64                    Importantly, we show that selective breeding in oysters is likely to be an importa
65 e with climate warming, leading to calls for selective breeding interventions to enhance the ability
66              The prerequisite for successful selective breeding is high genetic variation in the targ
67 ine and include fruit flavour preferences in selective breeding, it is vital to determine the metabol
68                                      Through selective breeding, it may also ultimately provide addit
69 e species is partly the result of continuous selective breeding leading to high performing strains.
70 s disease has been reported, suggesting that selective breeding may potentially form an important com
71                            Specifically, the selective breeding method is a repetitive procedure for
72 cept that changes in locomotor behaviour and selective breeding might be inferred from long bones mor
73                                              Selective breeding of animals for increased innate resis
74 ich historically was selected against during selective breeding of crops to increase seed retention.
75                                              Selective breeding of dogs by humans has generated extra
76                                              Selective breeding of domestic dogs has generated divers
77 ore common than previously assumed, and that selective breeding of females was largely absent during
78 ution and provides an important resource for selective breeding of goldfish.
79 The HdhQ200 knock-in model, derived from the selective breeding of HdhQ150 knock-in mice, manifests a
80  repeat- HdhQ250, which was derived from the selective breeding of HdhQ150 mice.
81 e authors previously reported the short-term selective breeding of lines of mice for low (LMACT) and
82       Here we present a method for efficient selective breeding of live oil-rich E. gracilis with flu
83                                Bidirectional selective breeding of mice for high (MAHDR) or low (MALD
84                     The fundamental trait in selective breeding of oil palm (Eleais guineensis Jacq.)
85                                To facilitate selective breeding of polyphenol-rich peanuts, we looked
86             This map will enable mapping and selective breeding of quantitative traits important to t
87                                          The selective breeding of rats as physiological, behavioral,
88                                              Selective breeding of some species of rodent has sometim
89                     These data indicate that selective breeding of the HAP and LAP lines has resulted
90                                           By selective breeding of the small fraction of eggs that ha
91 of different haplotypes, despite 25 years of selective breeding of the sublines of this colony.
92                                              Selective breeding of the WHS mice increased the contact
93 ice of mixed genetic background survive, and selective breeding of these mice leads to a 21% survival
94 e findings may open up new opportunities for selective breeding of this important rice metabolic trai
95 t candidates likely to mediate the effect of selective breeding on behavioral phenotype.
96 ated the genetic architecture and impacts of selective breeding on four climate-related traits in 105
97                               For millennia, selective breeding, on the basis of biparental mating, h
98 phytonutrient content of plant foods through selective breeding or genetic improvement is a potent di
99  associated with active tameness, we applied selective breeding over 9 generations for contacting, a
100 ely few landraces to North America, and then selective breeding over the past 75 years.
101 which are likely to depend on breed-specific selective breeding patterns.
102 d RNA sequencing) spanning 43 generations of selective breeding (postnatal day 7: n = 22; postnatal d
103 orporate the novel seasonal traits in future selective breeding programmes.
104 openaeus vannamei has been the focus of many selective breeding programs aiming to improve growth and
105 nds the integration of these biomarkers into selective breeding programs and conservation strategies
106 tication and have important implications for selective breeding programs and the conservation of rare
107                                              Selective breeding programs are enabling genetic improve
108 enomic analyses have the potential to impact selective breeding programs by identifying markers that
109 n order to provide information to be used in selective breeding programs directed to improve the nutr
110  linkage map will increase the efficiency of selective breeding programs for channel catfish.
111 o handling large number of samples needed in selective breeding programs for example.
112 n; and iv) identified useful SNP markers for selective breeding programs of Asian seabass.
113 ed with this QTL are being incorporated into selective breeding programs to improve PD resistance.
114 gh enough resolution for it to be useful for selective breeding programs using introgression.
115 ected to increase the efficiency of existing selective breeding programs, accelerate the start of new
116 erm selection responses, and the efficacy of selective breeding programs, demonstrating the importanc
117 e parent (half-siblings), which is common in selective breeding programs, imprinting can alter overal
118  have a broad application to commercial fish selective breeding programs, leading to increased aquacu
119 ceptor mRNA levels in lines of mice from two selective breeding projects of relevance to opioid analg
120 ied genetic loci for active tameness through selective breeding, selection mapping, and association a
121                                              Selective breeding strategies for reduced OJD susceptibi
122                         Furthermore, similar selective breeding strategies may help identify further
123 32.5% between 1960 and 2000, suggesting that selective breeding strategies targeting high yield and h
124 enic mice by the inclusion of genotype-based selective breeding strategies.
125 tial breeding schemes, we adapted a stepwise selective breeding strategy, with a whole-genome scan pe
126                                 Not only did selective breeding successfully reduce the severity of F
127 complexity during the Late Holocene involved selective breeding that encouraged crop diversification.
128 ners (LCRs) and high-capacity runners (HCRs)-selective breeding that results in disparate differences
129                          After two rounds of selective breeding, the chicks from the high-susceptibil
130 ferent barley cultivars might be a result of selective breeding to alter seed dormancy.
131 s ante-mortem diagnosis of similar cases and selective breeding to avoid the spread of this disease i
132 ameters Fv'/Fm' and qP can be considered for selective breeding to enhance photosynthetic efficiencie
133 cally test this prediction directly by using selective breeding to generate controlled and independen
134 CD in several breeds, allowing screening for selective breeding to reduce the prevalence of these con
135  a novel approach that uses a combination of selective breeding (to segregate genes contributing to t
136                To that aim we established by selective breeding two sublines of NOD mice from our inb
137                               In this study, selective breeding was used to generate two populations
138                           Through artificial selective breeding, we developed an animal model system
139                    After five generations of selective breeding, we obtained a population that displa
140  methods to quantify Rhg1 and other CNVs for selective breeding were developed.
141 have applications in veterinary medicine and selective breeding, whereas the allele's history recount
142 r realistic efforts of de-extinction through selective breeding without genetic engineering, and fuel

 
Page Top