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 recisely and definitively mapped to the L(d) class I gene.
2 geneic donor-derived swine leukocyte antigen class I gene.
3 element and downstream core promoter of the class I gene.
4 allogeneic major histocompatibility complex class-I gene.
5 lular major histocompatibility complex (MHC) class I genes.
6 ilies, M1 and M10, distinct from other mouse class I genes.
7 species-specific expansion of paralogous Mhc class I genes.
8 iple of a primordial class I region with few class I genes.
9 The 6p21.3 minimal deletion spans HLA class I genes.
10 itive/retroviral elements not flanking other class I genes.
11 ducts differ considerably from classical HLA class I genes.
12 l block or may express only nonclassical MHC class I genes.
13 othelial cells stably transfected with human class I genes.
14 nscription of major histocompatibility (MHC) class I genes.
15 TR) and 131 different alleles encoded by HLA class I genes.
16 equences of major histocompatibility complex class I genes.
17 ved in the promoters of human and murine MHC class I genes.
18 eam of the betaGAP sequence are nonclassical class I genes.
19 LA-E gene is distinct from that of other MHC class I genes.
20 macaques have an expanded repertoire of MHC class I genes.
21 NLRC5, which regulates the expression of MHC class I genes.
22 number of proteins compared to classical HLA class I genes.
23 highlights three independent associations to class I genes.
24 ologs of the six fixed, functional human MHC class I genes.
25 reduced expression of half of the 131 intact class I genes.
26 identified transcriptional regulator of MHC class I genes.
27 NLRC5, as a transcriptional regulator of MHC class I genes.
28 ates with and activates the promoters of MHC class I genes.
29 ], is a key transcription coactivator of MHC class I genes.
30 ng the overall sequence similarity among the Class I genes.
31 eles from 57 major lineages of classical HLA class I genes.
32 , this cis-element is found 5' of 20 primate class I genes (15 human genes), seven of which are known
36 differences in the mechanisms repressing RSL class I gene activity between members of the Poaceae and
38 transactivates the proximal promoters of MHC class I genes, although the molecular mechanism of trans
39 e last 50 kb of the H2-T region, including 2 class I genes and 3 class I pseudogenes, and includes th
40 500-kb stretch of the H2-M region contains 9 class I genes and 4 pseudogenes, which fall into two sub
41 nstrates an important role for all three HLA class I genes and a complex and heterogeneous pattern of
44 the first direct evidence incriminating MHC class I genes and CD8(+) T cells in the pathogenesis of
46 pression of major-histocompatibility-complex class I genes and nuclear factor-kappaB target genes.
49 essential element for the expression of HLA class I genes and that its transcriptional activity depe
52 c determinants of HIV-1 disease, and the HLA class I genes appear to be highly influential in this re
55 at HLA class I-recognizing receptors and HLA class I genes are genetic risk determinants that modulat
56 The major histocompatibility complex (MHC) class I genes are induced synergistically by interferons
58 the expanded CMZ phenotype, suggesting that Class I genes are more likely to affect the stem cells a
64 e genomic regions containing the KIR and HLA class I genes are unlinked, structurally complex, and hi
67 bidopsis thaliana homeodomain-leucine zipper class I genes; ATHB7 and ATHB12, both strongly induced b
69 unique to MHCII genes, because previous MHC class I gene-based therapies failed to produce Tregs.
71 ed to the expressed cotton-top tamarin's MHC class I genes, but does show some similarity to So-N1, a
72 ss II odorant receptor (OR) genes to that of class I genes, but not in other vertebrate gene families
73 ates of ASFV increased the expression of MHC class I genes, but there was no parallel increase in MHC
74 ducks predominantly use UAA, one of five MHC class I genes, but whether biased expression is also tru
78 The major histocompatibility complex (MHC) class I gene cAMP response element (CRE)-like site, -107
79 rphisms in the human leukocyte antigen (HLA) class I genes can cause the rejection of pluripotent ste
80 Patr-AL is an expressed, non-polymorphic MHC class I gene carried by approximately 50% of chimpanzee
84 biased expression of a single classical MHC class I gene coevolving with TAP transporters, whereas c
86 r results show that the expansion of the MHC class I gene complex, as well as increased selection for
90 e key substrate for the natural selection of class I gene conversion variants is the diversity in imm
92 These findings demonstrate that the self MHC class I gene dosage may regulate the extent of CD8(+) T
93 ional major histocompatibility complex (MHC) class I genes encode molecules that present intracellula
95 infection, the human leukocyte antigen (HLA) class I genes exhibit the strongest and most consistent
96 ls showed an up-regulation of FOXP3, (2) MHC class I genes exhibited long-term suppression, and (3) i
97 ombinatorial fine-tuning of the level of MHC class I gene expression in response to intrinsic and ext
101 In this report, we demonstrate that MHC class I gene expression is enhanced by the T cell enhanc
104 while higher levels restrict the domains of Class I gene expression to intermediate positions of the
105 pling a cell surface readout of bivalent MHC class I gene expression with whole-genome CRISPR-Cas9 sc
111 to explain lung phenotype variation; (2) HLA class I genes, extending previous GWAS findings in the H
112 scribe two highly divergent nonclassical MHC class I genes found in the chicken (Gallus gallus) that
116 ne marrow transduced with the allogeneic MHC class I gene H-2K(b) led to long-term expression of K(b)
117 recombinant murine genes composed of the MHC class I gene H-2L(d) and the Fc portion of immunoglobuli
118 cination is performed with an allogeneic MHC class I gene (H-2 Kd)-modified tumor, the T cells obtain
119 duced major histocompatibility complex (MHC) class I gene (H-2K(b)) in bone marrow (BM)-derived cells
120 human major histocompatibility complex (MHC) class I genes has been shown previously to increase at t
124 ta gene loci and the human leukocyte antigen class I gene HLA-A*02:01 and are deficient for the corre
125 sm of IFN-gamma stimulation of the human MHC class I gene HLA-A2, several human tumor cell lines were
127 genotyped, combining anonymous loci with the class I genes HLA-B and -C distributed across a genetic
128 o pinpoint disease susceptibility to the MHC class I genes HLA-B and HLA-A (risk ratios >1.5; P(combi
130 uding major histocompatibility complex (MHC) class I genes (HLA-A, HLA-B and B2M with p = 0.0001, p =
134 ass II genes, HLA-DRB1 and HLA-DQB1, and the class I genes, HLA-A and HLA-B, with type 1 diabetes (T1
136 three major histocompatibility complex (MHC) class I genes (human leukocyte antigen A [HLA-A], -B, an
137 ar run-on assays revealed that, unlike other class I genes, IFN-gamma stimulation of HLA-A mRNA accum
138 ion of a retrovirally encoded allogeneic MHC class I gene in bone marrow-derived cells can be used to
139 of a retrovirally transduced allogeneic MHC class I gene in bone marrow-derived cells from recombina
140 -CCAAT, TATAA-like, Sp1BS, and Inr-of an MHC class I gene in primary B-cells during both basal and ac
146 res that are similar to certain nonclassical class I genes in other vertebrates, and, unlike polymorp
148 to all other classical and nonclassical MHC class I genes in primates, the rate of synonymous nucleo
149 genes in humans to as many as 22 active MHC class I genes in rhesus and levels of sequence divergenc
151 HC class I, UAA, although they have five MHC class I genes in the complex, arranged TAP1-TAP2-UAA-UBA
156 allogeneic major histocompatibility complex class-I genes in the absence of host T-cell depletion an
158 era exhibit limited variability of their MHC class I genes, in contrast to the high variability displ
160 LCL 721.221 cells transfected with certain class I genes, including HLA-G, were also sufficient to
162 his article, we show that NLRC5-mediated MHC class I gene induction requires the W/S and X1, X2 cis-r
163 y that is necessary for transcription of MHC class I genes: inhibition of the AT activity represses t
164 ate that a single mutational event in an HLA class I gene is sufficient for loss of the corresponding
165 ork on the Xenopus MHC, the single classical class I gene is tightly linked to immunoproteasome and t
166 pression of major histocompatibility complex class I genes is determined by a series of upstream regu
168 erozygosity of Human leukocyte antigen (HLA) class I genes is linked to beneficial outcomes after HIV
169 on of major histocompatibility complex (MHC) class I genes is regulated by both tissue-specific (basa
171 essed major histocompatibility complex (MHC) class I genes isolated from a range of equid species and
172 s-infected, major histocompatibility complex class I gene knockout mice compared with no deaths for w
174 n another individual due to variation in HLA class I genes, loci central to the immune response.
177 s, but with the non-conventional MHC encoded class I gene, MICA (MHC class I chain-related gene A).
179 ence of class I loci or a failure to express class I genes might explain some of the relatively "weak
180 cal in the 5'-regulatory region of 12 rodent class I genes, nine of which have been shown to be funct
182 have cloned and characterized classical MHC class I genes of pig-tailed macaques and have identified
183 ily, termed H2-Mv, representing nonclassical class I genes of the major histocompatibility complex.
185 ese findings reveal a novel influence of MHC class I genes on CD4(+) T-cell responses to viral infect
190 lanoma cell line expressed a mutated HLA-A11 class I gene product that was recognized by the bulk tum
192 e the major histocompatibility complex (MHC) class I gene products, interferon-induced genes, and the
193 d that mice which have altered expression of class I gene products, the beta2-microglobulin knockout
199 roles of NLRC5/class I transactivator in MHC class I gene regulation and host defense by CD8(+) T cel
201 echanism to ensure that the transcription of class I genes remains tightly repressed under various ph
208 nus, therefore, expresses its own set of MHC class I genes, suggesting that an unusually high rate of
209 CIITA also modulates the expression of MHC class I genes, suggesting that it may have a more global
210 basal and activated transcriptions of an MHC class I gene target distinct core promoter domains, nucl
211 may represent a remnant of a once active MHC class I gene that is no longer functional in the cotton-
214 e sequenced introns 2, 3, and 8 of all three Class I genes (total>15.0 kb) for five non-human primate
215 to inhibit nuclear translocation of the MHC class I gene transactivator, NLRC5, and orchestrate its
217 lls were treated with TNF-alpha or IL-1beta, class I gene transcription substantially increased when
218 whereby low levels of Shh signaling initiate Class I gene transcription, while higher levels restrict
220 I and class I-like genes, only two classical class I genes, two CD1 genes and some non-classical Rfp-
224 se data demonstrate that the function of RSL class I genes was to control the development of structur
226 f the major histocompatibility complex (MHC) class I gene, we determined nucleosome occupancy and pos
228 s were presented by different molecules, MHC class I genes were identified in cDNA clones from Arabia
229 smid clones bearing the MHC-linked classical class I genes were isolated and shown to contain proteas
232 AP1 binding sites were more enriched in class I genes, whereas ERE, NFkappaB1, and SP1 sites wer
233 est a dual role for Shh in the regulation of Class I genes, whereby low levels of Shh signaling initi
234 e mammals have a third family of NKG2DL-like class I genes which we named MILL (MHC class I-like loca
235 DH classes I-V, the human cluster contains 3 class I genes while the mouse cluster has two class V ge
236 es, are transcribed from PEP promoters only (Class I genes), while in some instances (e.g. accD) gene